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/*
*******************************************************************************
* Copyright (C) 1997-2015, International Business Machines Corporation and *
* others. All Rights Reserved. *
*******************************************************************************
*
* File DECIMFMT.CPP
*
* Modification History:
*
* Date Name Description
* 02/19/97 aliu Converted from java.
* 03/20/97 clhuang Implemented with new APIs.
* 03/31/97 aliu Moved isLONG_MIN to DigitList, and fixed it.
* 04/3/97 aliu Rewrote parsing and formatting completely, and
* cleaned up and debugged. Actually works now.
* Implemented NAN and INF handling, for both parsing
* and formatting. Extensive testing & debugging.
* 04/10/97 aliu Modified to compile on AIX.
* 04/16/97 aliu Rewrote to use DigitList, which has been resurrected.
* Changed DigitCount to int per code review.
* 07/09/97 helena Made ParsePosition into a class.
* 08/26/97 aliu Extensive changes to applyPattern; completely
* rewritten from the Java.
* 09/09/97 aliu Ported over support for exponential formats.
* 07/20/98 stephen JDK 1.2 sync up.
* Various instances of '0' replaced with 'NULL'
* Check for grouping size in subFormat()
* Brought subParse() in line with Java 1.2
* Added method appendAffix()
* 08/24/1998 srl Removed Mutex calls. This is not a thread safe class!
* 02/22/99 stephen Removed character literals for EBCDIC safety
* 06/24/99 helena Integrated Alan's NF enhancements and Java2 bug fixes
* 06/28/99 stephen Fixed bugs in toPattern().
* 06/29/99 stephen Fixed operator= to copy fFormatWidth, fPad,
* fPadPosition
********************************************************************************
*/
#include "unicode/utypes.h"
#if !UCONFIG_NO_FORMATTING
#include "starboard/client_porting/poem/assert_poem.h"
#include "starboard/client_porting/poem/string_poem.h"
#include "unicode/uniset.h"
#include "unicode/currpinf.h"
#include "unicode/plurrule.h"
#include "unicode/utf16.h"
#include "unicode/numsys.h"
#include "unicode/localpointer.h"
#include "uresimp.h"
#include "ucurrimp.h"
#include "charstr.h"
#include "patternprops.h"
#include "cstring.h"
#include "uassert.h"
#include "hash.h"
#include "decfmtst.h"
#include "plurrule_impl.h"
#include "decimalformatpattern.h"
#include "fmtableimp.h"
#include "decimfmtimpl.h"
#include "visibledigits.h"
/*
* On certain platforms, round is a macro defined in math.h
* This undefine is to avoid conflict between the macro and
* the function defined below.
*/
#ifdef round
#undef round
#endif
U_NAMESPACE_BEGIN
#ifdef FMT_DEBUG
#include <stdio.h>
static void _debugout(const char *f, int l, const UnicodeString& s) {
char buf[2000];
s.extract((int32_t) 0, s.length(), buf, "utf-8");
printf("%s:%d: %s\n", f,l, buf);
}
#define debugout(x) _debugout(__FILE__,__LINE__,x)
#define debug(x) printf("%s:%d: %s\n", __FILE__,__LINE__, x);
static const UnicodeString dbg_null("<NULL>","");
#define DEREFSTR(x) ((x!=NULL)?(*x):(dbg_null))
#else
#define debugout(x)
#define debug(x)
#endif
/* For currency parsing purose,
* Need to remember all prefix patterns and suffix patterns of
* every currency format pattern,
* including the pattern of default currecny style
* and plural currency style. And the patterns are set through applyPattern.
*/
struct AffixPatternsForCurrency : public UMemory {
// negative prefix pattern
UnicodeString negPrefixPatternForCurrency;
// negative suffix pattern
UnicodeString negSuffixPatternForCurrency;
// positive prefix pattern
UnicodeString posPrefixPatternForCurrency;
// positive suffix pattern
UnicodeString posSuffixPatternForCurrency;
int8_t patternType;
AffixPatternsForCurrency(const UnicodeString& negPrefix,
const UnicodeString& negSuffix,
const UnicodeString& posPrefix,
const UnicodeString& posSuffix,
int8_t type) {
negPrefixPatternForCurrency = negPrefix;
negSuffixPatternForCurrency = negSuffix;
posPrefixPatternForCurrency = posPrefix;
posSuffixPatternForCurrency = posSuffix;
patternType = type;
}
#ifdef FMT_DEBUG
void dump() const {
debugout( UnicodeString("AffixPatternsForCurrency( -=\"") +
negPrefixPatternForCurrency + (UnicodeString)"\"/\"" +
negSuffixPatternForCurrency + (UnicodeString)"\" +=\"" +
posPrefixPatternForCurrency + (UnicodeString)"\"/\"" +
posSuffixPatternForCurrency + (UnicodeString)"\" )");
}
#endif
};
/* affix for currency formatting when the currency sign in the pattern
* equals to 3, such as the pattern contains 3 currency sign or
* the formatter style is currency plural format style.
*/
struct AffixesForCurrency : public UMemory {
// negative prefix
UnicodeString negPrefixForCurrency;
// negative suffix
UnicodeString negSuffixForCurrency;
// positive prefix
UnicodeString posPrefixForCurrency;
// positive suffix
UnicodeString posSuffixForCurrency;
int32_t formatWidth;
AffixesForCurrency(const UnicodeString& negPrefix,
const UnicodeString& negSuffix,
const UnicodeString& posPrefix,
const UnicodeString& posSuffix) {
negPrefixForCurrency = negPrefix;
negSuffixForCurrency = negSuffix;
posPrefixForCurrency = posPrefix;
posSuffixForCurrency = posSuffix;
}
#ifdef FMT_DEBUG
void dump() const {
debugout( UnicodeString("AffixesForCurrency( -=\"") +
negPrefixForCurrency + (UnicodeString)"\"/\"" +
negSuffixForCurrency + (UnicodeString)"\" +=\"" +
posPrefixForCurrency + (UnicodeString)"\"/\"" +
posSuffixForCurrency + (UnicodeString)"\" )");
}
#endif
};
U_CDECL_BEGIN
/**
* @internal ICU 4.2
*/
static UBool U_CALLCONV decimfmtAffixPatternValueComparator(UHashTok val1, UHashTok val2);
static UBool
U_CALLCONV decimfmtAffixPatternValueComparator(UHashTok val1, UHashTok val2) {
const AffixPatternsForCurrency* affix_1 =
(AffixPatternsForCurrency*)val1.pointer;
const AffixPatternsForCurrency* affix_2 =
(AffixPatternsForCurrency*)val2.pointer;
return affix_1->negPrefixPatternForCurrency ==
affix_2->negPrefixPatternForCurrency &&
affix_1->negSuffixPatternForCurrency ==
affix_2->negSuffixPatternForCurrency &&
affix_1->posPrefixPatternForCurrency ==
affix_2->posPrefixPatternForCurrency &&
affix_1->posSuffixPatternForCurrency ==
affix_2->posSuffixPatternForCurrency &&
affix_1->patternType == affix_2->patternType;
}
U_CDECL_END
// *****************************************************************************
// class DecimalFormat
// *****************************************************************************
UOBJECT_DEFINE_RTTI_IMPLEMENTATION(DecimalFormat)
// Constants for characters used in programmatic (unlocalized) patterns.
#define kPatternZeroDigit ((UChar)0x0030) /*'0'*/
#define kPatternSignificantDigit ((UChar)0x0040) /*'@'*/
#define kPatternGroupingSeparator ((UChar)0x002C) /*','*/
#define kPatternDecimalSeparator ((UChar)0x002E) /*'.'*/
#define kPatternPerMill ((UChar)0x2030)
#define kPatternPercent ((UChar)0x0025) /*'%'*/
#define kPatternDigit ((UChar)0x0023) /*'#'*/
#define kPatternSeparator ((UChar)0x003B) /*';'*/
#define kPatternExponent ((UChar)0x0045) /*'E'*/
#define kPatternPlus ((UChar)0x002B) /*'+'*/
#define kPatternMinus ((UChar)0x002D) /*'-'*/
#define kPatternPadEscape ((UChar)0x002A) /*'*'*/
#define kQuote ((UChar)0x0027) /*'\''*/
/**
* The CURRENCY_SIGN is the standard Unicode symbol for currency. It
* is used in patterns and substitued with either the currency symbol,
* or if it is doubled, with the international currency symbol. If the
* CURRENCY_SIGN is seen in a pattern, then the decimal separator is
* replaced with the monetary decimal separator.
*/
#define kCurrencySign ((UChar)0x00A4)
#define kDefaultPad ((UChar)0x0020) /* */
const int32_t DecimalFormat::kDoubleIntegerDigits = 309;
const int32_t DecimalFormat::kDoubleFractionDigits = 340;
const int32_t DecimalFormat::kMaxScientificIntegerDigits = 8;
/**
* These are the tags we expect to see in normal resource bundle files associated
* with a locale.
*/
const char DecimalFormat::fgNumberPatterns[]="NumberPatterns"; // Deprecated - not used
static const char fgNumberElements[]="NumberElements";
static const char fgLatn[]="latn";
static const char fgPatterns[]="patterns";
static const char fgDecimalFormat[]="decimalFormat";
static const char fgCurrencyFormat[]="currencyFormat";
inline int32_t _min(int32_t a, int32_t b) { return (a<b) ? a : b; }
inline int32_t _max(int32_t a, int32_t b) { return (a<b) ? b : a; }
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance in the default locale.
DecimalFormat::DecimalFormat(UErrorCode& status) {
init();
UParseError parseError;
construct(status, parseError);
}
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance with the specified number format
// pattern in the default locale.
DecimalFormat::DecimalFormat(const UnicodeString& pattern,
UErrorCode& status) {
init();
UParseError parseError;
construct(status, parseError, &pattern);
}
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance with the specified number format
// pattern and the number format symbols in the default locale. The
// created instance owns the symbols.
DecimalFormat::DecimalFormat(const UnicodeString& pattern,
DecimalFormatSymbols* symbolsToAdopt,
UErrorCode& status) {
init();
UParseError parseError;
if (symbolsToAdopt == NULL)
status = U_ILLEGAL_ARGUMENT_ERROR;
construct(status, parseError, &pattern, symbolsToAdopt);
}
DecimalFormat::DecimalFormat( const UnicodeString& pattern,
DecimalFormatSymbols* symbolsToAdopt,
UParseError& parseErr,
UErrorCode& status) {
init();
if (symbolsToAdopt == NULL)
status = U_ILLEGAL_ARGUMENT_ERROR;
construct(status,parseErr, &pattern, symbolsToAdopt);
}
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance with the specified number format
// pattern and the number format symbols in the default locale. The
// created instance owns the clone of the symbols.
DecimalFormat::DecimalFormat(const UnicodeString& pattern,
const DecimalFormatSymbols& symbols,
UErrorCode& status) {
init();
UParseError parseError;
construct(status, parseError, &pattern, new DecimalFormatSymbols(symbols));
}
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance with the specified number format
// pattern, the number format symbols, and the number format style.
// The created instance owns the clone of the symbols.
DecimalFormat::DecimalFormat(const UnicodeString& pattern,
DecimalFormatSymbols* symbolsToAdopt,
UNumberFormatStyle style,
UErrorCode& status) {
init();
fStyle = style;
UParseError parseError;
construct(status, parseError, &pattern, symbolsToAdopt);
}
//-----------------------------------------------------------------------------
// Common DecimalFormat initialization.
// Put all fields of an uninitialized object into a known state.
// Common code, shared by all constructors.
// Can not fail. Leave the object in good enough shape that the destructor
// or assignment operator can run successfully.
void
DecimalFormat::init() {
fBoolFlags.clear();
fStyle = UNUM_DECIMAL;
fAffixPatternsForCurrency = NULL;
fCurrencyPluralInfo = NULL;
#if UCONFIG_HAVE_PARSEALLINPUT
fParseAllInput = UNUM_MAYBE;
#endif
fStaticSets = NULL;
fImpl = NULL;
}
//------------------------------------------------------------------------------
// Constructs a DecimalFormat instance with the specified number format
// pattern and the number format symbols in the desired locale. The
// created instance owns the symbols.
void
DecimalFormat::construct(UErrorCode& status,
UParseError& parseErr,
const UnicodeString* pattern,
DecimalFormatSymbols* symbolsToAdopt)
{
LocalPointer<DecimalFormatSymbols> adoptedSymbols(symbolsToAdopt);
if (U_FAILURE(status))
return;
if (adoptedSymbols.isNull())
{
adoptedSymbols.adoptInstead(
new DecimalFormatSymbols(Locale::getDefault(), status));
if (adoptedSymbols.isNull() && U_SUCCESS(status)) {
status = U_MEMORY_ALLOCATION_ERROR;
}
if (U_FAILURE(status)) {
return;
}
}
fStaticSets = DecimalFormatStaticSets::getStaticSets(status);
if (U_FAILURE(status)) {
return;
}
UnicodeString str;
// Uses the default locale's number format pattern if there isn't
// one specified.
if (pattern == NULL)
{
UErrorCode nsStatus = U_ZERO_ERROR;
LocalPointer<NumberingSystem> ns(
NumberingSystem::createInstance(nsStatus));
if (U_FAILURE(nsStatus)) {
status = nsStatus;
return;
}
int32_t len = 0;
UResourceBundle *top = ures_open(NULL, Locale::getDefault().getName(), &status);
UResourceBundle *resource = ures_getByKeyWithFallback(top, fgNumberElements, NULL, &status);
resource = ures_getByKeyWithFallback(resource, ns->getName(), resource, &status);
resource = ures_getByKeyWithFallback(resource, fgPatterns, resource, &status);
const UChar *resStr = ures_getStringByKeyWithFallback(resource, fgDecimalFormat, &len, &status);
if ( status == U_MISSING_RESOURCE_ERROR && uprv_strcmp(fgLatn,ns->getName())) {
status = U_ZERO_ERROR;
resource = ures_getByKeyWithFallback(top, fgNumberElements, resource, &status);
resource = ures_getByKeyWithFallback(resource, fgLatn, resource, &status);
resource = ures_getByKeyWithFallback(resource, fgPatterns, resource, &status);
resStr = ures_getStringByKeyWithFallback(resource, fgDecimalFormat, &len, &status);
}
str.setTo(TRUE, resStr, len);
pattern = &str;
ures_close(resource);
ures_close(top);
}
fImpl = new DecimalFormatImpl(this, *pattern, adoptedSymbols.getAlias(), parseErr, status);
if (fImpl) {
adoptedSymbols.orphan();
} else if (U_SUCCESS(status)) {
status = U_MEMORY_ALLOCATION_ERROR;
}
if (U_FAILURE(status)) {
return;
}
if (U_FAILURE(status))
{
return;
}
const UnicodeString* patternUsed;
UnicodeString currencyPluralPatternForOther;
// apply pattern
if (fStyle == UNUM_CURRENCY_PLURAL) {
fCurrencyPluralInfo = new CurrencyPluralInfo(fImpl->fSymbols->getLocale(), status);
if (U_FAILURE(status)) {
return;
}
// the pattern used in format is not fixed until formatting,
// in which, the number is known and
// will be used to pick the right pattern based on plural count.
// Here, set the pattern as the pattern of plural count == "other".
// For most locale, the patterns are probably the same for all
// plural count. If not, the right pattern need to be re-applied
// during format.
fCurrencyPluralInfo->getCurrencyPluralPattern(UNICODE_STRING("other", 5), currencyPluralPatternForOther);
// TODO(refactor): Revisit, we are setting the pattern twice.
fImpl->applyPatternFavorCurrencyPrecision(
currencyPluralPatternForOther, status);
patternUsed = &currencyPluralPatternForOther;
} else {
patternUsed = pattern;
}
if (patternUsed->indexOf(kCurrencySign) != -1) {
// initialize for currency, not only for plural format,
// but also for mix parsing
if (fCurrencyPluralInfo == NULL) {
fCurrencyPluralInfo = new CurrencyPluralInfo(fImpl->fSymbols->getLocale(), status);
if (U_FAILURE(status)) {
return;
}
}
// need it for mix parsing
setupCurrencyAffixPatterns(status);
}
}
static void
applyPatternWithNoSideEffects(
const UnicodeString& pattern,
UParseError& parseError,
UnicodeString &negPrefix,
UnicodeString &negSuffix,
UnicodeString &posPrefix,
UnicodeString &posSuffix,
UErrorCode& status) {
if (U_FAILURE(status))
{
return;
}
DecimalFormatPatternParser patternParser;
DecimalFormatPattern out;
patternParser.applyPatternWithoutExpandAffix(
pattern,
out,
parseError,
status);
if (U_FAILURE(status)) {
return;
}
negPrefix = out.fNegPrefixPattern;
negSuffix = out.fNegSuffixPattern;
posPrefix = out.fPosPrefixPattern;
posSuffix = out.fPosSuffixPattern;
}
void
DecimalFormat::setupCurrencyAffixPatterns(UErrorCode& status) {
if (U_FAILURE(status)) {
return;
}
UParseError parseErr;
fAffixPatternsForCurrency = initHashForAffixPattern(status);
if (U_FAILURE(status)) {
return;
}
NumberingSystem *ns = NumberingSystem::createInstance(fImpl->fSymbols->getLocale(),status);
if (U_FAILURE(status)) {
return;
}
// Save the default currency patterns of this locale.
// Here, chose onlyApplyPatternWithoutExpandAffix without
// expanding the affix patterns into affixes.
UnicodeString currencyPattern;
UErrorCode error = U_ZERO_ERROR;
UResourceBundle *resource = ures_open(NULL, fImpl->fSymbols->getLocale().getName(), &error);
UResourceBundle *numElements = ures_getByKeyWithFallback(resource, fgNumberElements, NULL, &error);
resource = ures_getByKeyWithFallback(numElements, ns->getName(), resource, &error);
resource = ures_getByKeyWithFallback(resource, fgPatterns, resource, &error);
int32_t patLen = 0;
const UChar *patResStr = ures_getStringByKeyWithFallback(resource, fgCurrencyFormat, &patLen, &error);
if ( error == U_MISSING_RESOURCE_ERROR && uprv_strcmp(ns->getName(),fgLatn)) {
error = U_ZERO_ERROR;
resource = ures_getByKeyWithFallback(numElements, fgLatn, resource, &error);
resource = ures_getByKeyWithFallback(resource, fgPatterns, resource, &error);
patResStr = ures_getStringByKeyWithFallback(resource, fgCurrencyFormat, &patLen, &error);
}
ures_close(numElements);
ures_close(resource);
delete ns;
if (U_SUCCESS(error)) {
UnicodeString negPrefix;
UnicodeString negSuffix;
UnicodeString posPrefix;
UnicodeString posSuffix;
applyPatternWithNoSideEffects(UnicodeString(patResStr, patLen),
parseErr,
negPrefix, negSuffix, posPrefix, posSuffix, status);
AffixPatternsForCurrency* affixPtn = new AffixPatternsForCurrency(
negPrefix,
negSuffix,
posPrefix,
posSuffix,
UCURR_SYMBOL_NAME);
fAffixPatternsForCurrency->put(UNICODE_STRING("default", 7), affixPtn, status);
}
// save the unique currency plural patterns of this locale.
Hashtable* pluralPtn = fCurrencyPluralInfo->fPluralCountToCurrencyUnitPattern;
const UHashElement* element = NULL;
int32_t pos = UHASH_FIRST;
Hashtable pluralPatternSet;
while ((element = pluralPtn->nextElement(pos)) != NULL) {
const UHashTok valueTok = element->value;
const UnicodeString* value = (UnicodeString*)valueTok.pointer;
const UHashTok keyTok = element->key;
const UnicodeString* key = (UnicodeString*)keyTok.pointer;
if (pluralPatternSet.geti(*value) != 1) {
UnicodeString negPrefix;
UnicodeString negSuffix;
UnicodeString posPrefix;
UnicodeString posSuffix;
pluralPatternSet.puti(*value, 1, status);
applyPatternWithNoSideEffects(
*value, parseErr,
negPrefix, negSuffix, posPrefix, posSuffix, status);
AffixPatternsForCurrency* affixPtn = new AffixPatternsForCurrency(
negPrefix,
negSuffix,
posPrefix,
posSuffix,
UCURR_LONG_NAME);
fAffixPatternsForCurrency->put(*key, affixPtn, status);
}
}
}
//------------------------------------------------------------------------------
DecimalFormat::~DecimalFormat()
{
deleteHashForAffixPattern();
delete fCurrencyPluralInfo;
delete fImpl;
}
//------------------------------------------------------------------------------
// copy constructor
DecimalFormat::DecimalFormat(const DecimalFormat &source) :
NumberFormat(source) {
init();
*this = source;
}
//------------------------------------------------------------------------------
// assignment operator
template <class T>
static void _clone_ptr(T** pdest, const T* source) {
delete *pdest;
if (source == NULL) {
*pdest = NULL;
} else {
*pdest = static_cast<T*>(source->clone());
}
}
DecimalFormat&
DecimalFormat::operator=(const DecimalFormat& rhs)
{
if(this != &rhs) {
UErrorCode status = U_ZERO_ERROR;
NumberFormat::operator=(rhs);
if (fImpl == NULL) {
fImpl = new DecimalFormatImpl(this, *rhs.fImpl, status);
} else {
fImpl->assign(*rhs.fImpl, status);
}
fStaticSets = DecimalFormatStaticSets::getStaticSets(status);
fStyle = rhs.fStyle;
_clone_ptr(&fCurrencyPluralInfo, rhs.fCurrencyPluralInfo);
deleteHashForAffixPattern();
if (rhs.fAffixPatternsForCurrency) {
UErrorCode status = U_ZERO_ERROR;
fAffixPatternsForCurrency = initHashForAffixPattern(status);
copyHashForAffixPattern(rhs.fAffixPatternsForCurrency,
fAffixPatternsForCurrency, status);
}
}
return *this;
}
//------------------------------------------------------------------------------
UBool
DecimalFormat::operator==(const Format& that) const
{
if (this == &that)
return TRUE;
// NumberFormat::operator== guarantees this cast is safe
const DecimalFormat* other = (DecimalFormat*)&that;
return (
NumberFormat::operator==(that) &&
fBoolFlags.getAll() == other->fBoolFlags.getAll() &&
*fImpl == *other->fImpl);
}
//------------------------------------------------------------------------------
Format*
DecimalFormat::clone() const
{
return new DecimalFormat(*this);
}
FixedDecimal
DecimalFormat::getFixedDecimal(double number, UErrorCode &status) const {
VisibleDigitsWithExponent digits;
initVisibleDigitsWithExponent(number, digits, status);
if (U_FAILURE(status)) {
return FixedDecimal();
}
return FixedDecimal(digits.getMantissa());
}
VisibleDigitsWithExponent &
DecimalFormat::initVisibleDigitsWithExponent(
double number,
VisibleDigitsWithExponent &digits,
UErrorCode &status) const {
return fImpl->initVisibleDigitsWithExponent(number, digits, status);
}
FixedDecimal
DecimalFormat::getFixedDecimal(const Formattable &number, UErrorCode &status) const {
VisibleDigitsWithExponent digits;
initVisibleDigitsWithExponent(number, digits, status);
if (U_FAILURE(status)) {
return FixedDecimal();
}
return FixedDecimal(digits.getMantissa());
}
VisibleDigitsWithExponent &
DecimalFormat::initVisibleDigitsWithExponent(
const Formattable &number,
VisibleDigitsWithExponent &digits,
UErrorCode &status) const {
if (U_FAILURE(status)) {
return digits;
}
if (!number.isNumeric()) {
status = U_ILLEGAL_ARGUMENT_ERROR;
return digits;
}
DigitList *dl = number.getDigitList();
if (dl != NULL) {
DigitList dlCopy(*dl);
return fImpl->initVisibleDigitsWithExponent(
dlCopy, digits, status);
}
Formattable::Type type = number.getType();
if (type == Formattable::kDouble || type == Formattable::kLong) {
return fImpl->initVisibleDigitsWithExponent(
number.getDouble(status), digits, status);
}
return fImpl->initVisibleDigitsWithExponent(
number.getInt64(), digits, status);
}
// Create a fixed decimal from a DigitList.
// The digit list may be modified.
// Internal function only.
FixedDecimal
DecimalFormat::getFixedDecimal(DigitList &number, UErrorCode &status) const {
VisibleDigitsWithExponent digits;
initVisibleDigitsWithExponent(number, digits, status);
if (U_FAILURE(status)) {
return FixedDecimal();
}
return FixedDecimal(digits.getMantissa());
}
VisibleDigitsWithExponent &
DecimalFormat::initVisibleDigitsWithExponent(
DigitList &number,
VisibleDigitsWithExponent &digits,
UErrorCode &status) const {
return fImpl->initVisibleDigitsWithExponent(
number, digits, status);
}
//------------------------------------------------------------------------------
UnicodeString&
DecimalFormat::format(int32_t number,
UnicodeString& appendTo,
FieldPosition& fieldPosition) const
{
UErrorCode status = U_ZERO_ERROR;
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format(int32_t number,
UnicodeString& appendTo,
FieldPosition& fieldPosition,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format(int32_t number,
UnicodeString& appendTo,
FieldPositionIterator* posIter,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, posIter, status);
}
//------------------------------------------------------------------------------
UnicodeString&
DecimalFormat::format(int64_t number,
UnicodeString& appendTo,
FieldPosition& fieldPosition) const
{
UErrorCode status = U_ZERO_ERROR; /* ignored */
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format(int64_t number,
UnicodeString& appendTo,
FieldPosition& fieldPosition,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format(int64_t number,
UnicodeString& appendTo,
FieldPositionIterator* posIter,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, posIter, status);
}
//------------------------------------------------------------------------------
UnicodeString&
DecimalFormat::format( double number,
UnicodeString& appendTo,
FieldPosition& fieldPosition) const
{
UErrorCode status = U_ZERO_ERROR; /* ignored */
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format( double number,
UnicodeString& appendTo,
FieldPosition& fieldPosition,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, fieldPosition, status);
}
UnicodeString&
DecimalFormat::format( double number,
UnicodeString& appendTo,
FieldPositionIterator* posIter,
UErrorCode& status) const
{
return fImpl->format(number, appendTo, posIter, status);
}
//------------------------------------------------------------------------------
UnicodeString&
DecimalFormat::format(const StringPiece &number,
UnicodeString &toAppendTo,
FieldPositionIterator *posIter,
UErrorCode &status) const
{
return fImpl->format(number, toAppendTo, posIter, status);
}
UnicodeString&
DecimalFormat::format(const DigitList &number,
UnicodeString &appendTo,
FieldPositionIterator *posIter,
UErrorCode &status) const {
return fImpl->format(number, appendTo, posIter, status);
}
UnicodeString&
DecimalFormat::format(const DigitList &number,
UnicodeString& appendTo,
FieldPosition& pos,
UErrorCode &status) const {
return fImpl->format(number, appendTo, pos, status);
}
UnicodeString&
DecimalFormat::format(const VisibleDigitsWithExponent &number,
UnicodeString &appendTo,
FieldPositionIterator *posIter,
UErrorCode &status) const {
return fImpl->format(number, appendTo, posIter, status);
}
UnicodeString&
DecimalFormat::format(const VisibleDigitsWithExponent &number,
UnicodeString& appendTo,
FieldPosition& pos,
UErrorCode &status) const {
return fImpl->format(number, appendTo, pos, status);
}
DigitList&
DecimalFormat::_round(const DigitList& number, DigitList& adjustedNum, UBool& isNegative, UErrorCode& status) const {
adjustedNum = number;
fImpl->round(adjustedNum, status);
isNegative = !adjustedNum.isPositive();
return adjustedNum;
}
void
DecimalFormat::parse(const UnicodeString& text,
Formattable& result,
ParsePosition& parsePosition) const {
parse(text, result, parsePosition, NULL);
}
CurrencyAmount* DecimalFormat::parseCurrency(const UnicodeString& text,
ParsePosition& pos) const {
Formattable parseResult;
int32_t start = pos.getIndex();
UChar curbuf[4] = {};
parse(text, parseResult, pos, curbuf);
if (pos.getIndex() != start) {
UErrorCode ec = U_ZERO_ERROR;
LocalPointer<CurrencyAmount> currAmt(new CurrencyAmount(parseResult, curbuf, ec), ec);
if (U_FAILURE(ec)) {
pos.setIndex(start); // indicate failure
} else {
return currAmt.orphan();
}
}
return NULL;
}
/**
* Parses the given text as a number, optionally providing a currency amount.
* @param text the string to parse
* @param result output parameter for the numeric result.
* @param parsePosition input-output position; on input, the
* position within text to match; must have 0 <= pos.getIndex() <
* text.length(); on output, the position after the last matched
* character. If the parse fails, the position in unchanged upon
* output.
* @param currency if non-NULL, it should point to a 4-UChar buffer.
* In this case the text is parsed as a currency format, and the
* ISO 4217 code for the parsed currency is put into the buffer.
* Otherwise the text is parsed as a non-currency format.
*/
void DecimalFormat::parse(const UnicodeString& text,
Formattable& result,
ParsePosition& parsePosition,
UChar* currency) const {
int32_t startIdx, backup;
int32_t i = startIdx = backup = parsePosition.getIndex();
// clear any old contents in the result. In particular, clears any DigitList
// that it may be holding.
result.setLong(0);
if (currency != NULL) {
for (int32_t ci=0; ci<4; ci++) {
currency[ci] = 0;
}
}
// Handle NaN as a special case:
int32_t formatWidth = fImpl->getOldFormatWidth();
// Skip padding characters, if around prefix
if (formatWidth > 0 && (
fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadBeforePrefix ||
fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadAfterPrefix)) {
i = skipPadding(text, i);
}
if (isLenient()) {
// skip any leading whitespace
i = backup = skipUWhiteSpace(text, i);
}
// If the text is composed of the representation of NaN, returns NaN.length
const UnicodeString *nan = &fImpl->getConstSymbol(DecimalFormatSymbols::kNaNSymbol);
int32_t nanLen = (text.compare(i, nan->length(), *nan)
? 0 : nan->length());
if (nanLen) {
i += nanLen;
if (formatWidth > 0 && (fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadBeforeSuffix || fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadAfterSuffix)) {
i = skipPadding(text, i);
}
parsePosition.setIndex(i);
result.setDouble(uprv_getNaN());
return;
}
// NaN parse failed; start over
i = backup;
parsePosition.setIndex(i);
// status is used to record whether a number is infinite.
UBool status[fgStatusLength];
DigitList *digits = result.getInternalDigitList(); // get one from the stack buffer
if (digits == NULL) {
return; // no way to report error from here.
}
if (fImpl->fMonetary) {
if (!parseForCurrency(text, parsePosition, *digits,
status, currency)) {
return;
}
} else {
if (!subparse(text,
&fImpl->fAffixes.fNegativePrefix.getOtherVariant().toString(),
&fImpl->fAffixes.fNegativeSuffix.getOtherVariant().toString(),
&fImpl->fAffixes.fPositivePrefix.getOtherVariant().toString(),
&fImpl->fAffixes.fPositiveSuffix.getOtherVariant().toString(),
FALSE, UCURR_SYMBOL_NAME,
parsePosition, *digits, status, currency)) {
debug("!subparse(...) - rewind");
parsePosition.setIndex(startIdx);
return;
}
}
// Handle infinity
if (status[fgStatusInfinite]) {
double inf = uprv_getInfinity();
result.setDouble(digits->isPositive() ? inf : -inf);
// TODO: set the dl to infinity, and let it fall into the code below.
}
else {
if (!fImpl->fMultiplier.isZero()) {
UErrorCode ec = U_ZERO_ERROR;
digits->div(fImpl->fMultiplier, ec);
}
if (fImpl->fScale != 0) {
DigitList ten;
ten.set((int32_t)10);
if (fImpl->fScale > 0) {
for (int32_t i = fImpl->fScale; i > 0; i--) {
UErrorCode ec = U_ZERO_ERROR;
digits->div(ten,ec);
}
} else {
for (int32_t i = fImpl->fScale; i < 0; i++) {
UErrorCode ec = U_ZERO_ERROR;
digits->mult(ten,ec);
}
}
}
// Negative zero special case:
// if parsing integerOnly, change to +0, which goes into an int32 in a Formattable.
// if not parsing integerOnly, leave as -0, which a double can represent.
if (digits->isZero() && !digits->isPositive() && isParseIntegerOnly()) {
digits->setPositive(TRUE);
}
result.adoptDigitList(digits);
}
}
UBool
DecimalFormat::parseForCurrency(const UnicodeString& text,
ParsePosition& parsePosition,
DigitList& digits,
UBool* status,
UChar* currency) const {
UnicodeString positivePrefix;
UnicodeString positiveSuffix;
UnicodeString negativePrefix;
UnicodeString negativeSuffix;
fImpl->fPositivePrefixPattern.toString(positivePrefix);
fImpl->fPositiveSuffixPattern.toString(positiveSuffix);
fImpl->fNegativePrefixPattern.toString(negativePrefix);
fImpl->fNegativeSuffixPattern.toString(negativeSuffix);
int origPos = parsePosition.getIndex();
int maxPosIndex = origPos;
int maxErrorPos = -1;
// First, parse against current pattern.
// Since current pattern could be set by applyPattern(),
// it could be an arbitrary pattern, and it may not be the one
// defined in current locale.
UBool tmpStatus[fgStatusLength];
ParsePosition tmpPos(origPos);
DigitList tmpDigitList;
UBool found;
if (fStyle == UNUM_CURRENCY_PLURAL) {
found = subparse(text,
&negativePrefix, &negativeSuffix,
&positivePrefix, &positiveSuffix,
TRUE, UCURR_LONG_NAME,
tmpPos, tmpDigitList, tmpStatus, currency);
} else {
found = subparse(text,
&negativePrefix, &negativeSuffix,
&positivePrefix, &positiveSuffix,
TRUE, UCURR_SYMBOL_NAME,
tmpPos, tmpDigitList, tmpStatus, currency);
}
if (found) {
if (tmpPos.getIndex() > maxPosIndex) {
maxPosIndex = tmpPos.getIndex();
for (int32_t i = 0; i < fgStatusLength; ++i) {
status[i] = tmpStatus[i];
}
digits = tmpDigitList;
}
} else {
maxErrorPos = tmpPos.getErrorIndex();
}
// Then, parse against affix patterns.
// Those are currency patterns and currency plural patterns.
int32_t pos = UHASH_FIRST;
const UHashElement* element = NULL;
while ( (element = fAffixPatternsForCurrency->nextElement(pos)) != NULL ) {
const UHashTok valueTok = element->value;
const AffixPatternsForCurrency* affixPtn = (AffixPatternsForCurrency*)valueTok.pointer;
UBool tmpStatus[fgStatusLength];
ParsePosition tmpPos(origPos);
DigitList tmpDigitList;
#ifdef FMT_DEBUG
debug("trying affix for currency..");
affixPtn->dump();
#endif
UBool result = subparse(text,
&affixPtn->negPrefixPatternForCurrency,
&affixPtn->negSuffixPatternForCurrency,
&affixPtn->posPrefixPatternForCurrency,
&affixPtn->posSuffixPatternForCurrency,
TRUE, affixPtn->patternType,
tmpPos, tmpDigitList, tmpStatus, currency);
if (result) {
found = true;
if (tmpPos.getIndex() > maxPosIndex) {
maxPosIndex = tmpPos.getIndex();
for (int32_t i = 0; i < fgStatusLength; ++i) {
status[i] = tmpStatus[i];
}
digits = tmpDigitList;
}
} else {
maxErrorPos = (tmpPos.getErrorIndex() > maxErrorPos) ?
tmpPos.getErrorIndex() : maxErrorPos;
}
}
// Finally, parse against simple affix to find the match.
// For example, in TestMonster suite,
// if the to-be-parsed text is "-\u00A40,00".
// complexAffixCompare will not find match,
// since there is no ISO code matches "\u00A4",
// and the parse stops at "\u00A4".
// We will just use simple affix comparison (look for exact match)
// to pass it.
//
// TODO: We should parse against simple affix first when
// output currency is not requested. After the complex currency
// parsing implementation was introduced, the default currency
// instance parsing slowed down because of the new code flow.
// I filed #10312 - Yoshito
UBool tmpStatus_2[fgStatusLength];
ParsePosition tmpPos_2(origPos);
DigitList tmpDigitList_2;
// Disable complex currency parsing and try it again.
UBool result = subparse(text,
&fImpl->fAffixes.fNegativePrefix.getOtherVariant().toString(),
&fImpl->fAffixes.fNegativeSuffix.getOtherVariant().toString(),
&fImpl->fAffixes.fPositivePrefix.getOtherVariant().toString(),
&fImpl->fAffixes.fPositiveSuffix.getOtherVariant().toString(),
FALSE /* disable complex currency parsing */, UCURR_SYMBOL_NAME,
tmpPos_2, tmpDigitList_2, tmpStatus_2,
currency);
if (result) {
if (tmpPos_2.getIndex() > maxPosIndex) {
maxPosIndex = tmpPos_2.getIndex();
for (int32_t i = 0; i < fgStatusLength; ++i) {
status[i] = tmpStatus_2[i];
}
digits = tmpDigitList_2;
}
found = true;
} else {
maxErrorPos = (tmpPos_2.getErrorIndex() > maxErrorPos) ?
tmpPos_2.getErrorIndex() : maxErrorPos;
}
if (!found) {
//parsePosition.setIndex(origPos);
parsePosition.setErrorIndex(maxErrorPos);
} else {
parsePosition.setIndex(maxPosIndex);
parsePosition.setErrorIndex(-1);
}
return found;
}
/**
* Parse the given text into a number. The text is parsed beginning at
* parsePosition, until an unparseable character is seen.
* @param text the string to parse.
* @param negPrefix negative prefix.
* @param negSuffix negative suffix.
* @param posPrefix positive prefix.
* @param posSuffix positive suffix.
* @param complexCurrencyParsing whether it is complex currency parsing or not.
* @param type the currency type to parse against, LONG_NAME only or not.
* @param parsePosition The position at which to being parsing. Upon
* return, the first unparsed character.
* @param digits the DigitList to set to the parsed value.
* @param status output param containing boolean status flags indicating
* whether the value was infinite and whether it was positive.
* @param currency return value for parsed currency, for generic
* currency parsing mode, or NULL for normal parsing. In generic
* currency parsing mode, any currency is parsed, not just the
* currency that this formatter is set to.
*/
UBool DecimalFormat::subparse(const UnicodeString& text,
const UnicodeString* negPrefix,
const UnicodeString* negSuffix,
const UnicodeString* posPrefix,
const UnicodeString* posSuffix,
UBool complexCurrencyParsing,
int8_t type,
ParsePosition& parsePosition,
DigitList& digits, UBool* status,
UChar* currency) const
{
// The parsing process builds up the number as char string, in the neutral format that
// will be acceptable to the decNumber library, then at the end passes that string
// off for conversion to a decNumber.
UErrorCode err = U_ZERO_ERROR;
CharString parsedNum;
digits.setToZero();
int32_t position = parsePosition.getIndex();
int32_t oldStart = position;
int32_t textLength = text.length(); // One less pointer to follow
UBool strictParse = !isLenient();
UChar32 zero = fImpl->getConstSymbol(DecimalFormatSymbols::kZeroDigitSymbol).char32At(0);
const UnicodeString *groupingString = &fImpl->getConstSymbol(
!fImpl->fMonetary ?
DecimalFormatSymbols::kGroupingSeparatorSymbol : DecimalFormatSymbols::kMonetaryGroupingSeparatorSymbol);
UChar32 groupingChar = groupingString->char32At(0);
int32_t groupingStringLength = groupingString->length();
int32_t groupingCharLength = U16_LENGTH(groupingChar);
UBool groupingUsed = isGroupingUsed();
#ifdef FMT_DEBUG
UChar dbgbuf[300];
UnicodeString s(dbgbuf,0,300);;
s.append((UnicodeString)"PARSE \"").append(text.tempSubString(position)).append((UnicodeString)"\" " );
#define DBGAPPD(x) if(x) { s.append(UnicodeString(#x "=")); if(x->isEmpty()) { s.append(UnicodeString("<empty>")); } else { s.append(*x); } s.append(UnicodeString(" ")); } else { s.append(UnicodeString(#x "=NULL ")); }
DBGAPPD(negPrefix);
DBGAPPD(negSuffix);
DBGAPPD(posPrefix);
DBGAPPD(posSuffix);
debugout(s);
#endif
UBool fastParseOk = false; /* TRUE iff fast parse is OK */
// UBool fastParseHadDecimal = FALSE; /* true if fast parse saw a decimal point. */
if((fImpl->isParseFastpath()) && !fImpl->fMonetary &&
text.length()>0 &&
text.length()<32 &&
(posPrefix==NULL||posPrefix->isEmpty()) &&
(posSuffix==NULL||posSuffix->isEmpty()) &&
// (negPrefix==NULL||negPrefix->isEmpty()) &&
// (negSuffix==NULL||(negSuffix->isEmpty()) ) &&
TRUE) { // optimized path
int j=position;
int l=text.length();
int digitCount=0;
UChar32 ch = text.char32At(j);
const UnicodeString *decimalString = &fImpl->getConstSymbol(DecimalFormatSymbols::kDecimalSeparatorSymbol);
UChar32 decimalChar = 0;
UBool intOnly = FALSE;
UChar32 lookForGroup = (groupingUsed&&intOnly&&strictParse)?groupingChar:0;
int32_t decimalCount = decimalString->countChar32(0,3);
if(isParseIntegerOnly()) {
decimalChar = 0; // not allowed
intOnly = TRUE; // Don't look for decimals.
} else if(decimalCount==1) {
decimalChar = decimalString->char32At(0); // Look for this decimal
} else if(decimalCount==0) {
decimalChar=0; // NO decimal set
} else {
j=l+1;//Set counter to end of line, so that we break. Unknown decimal situation.
}
#ifdef FMT_DEBUG
printf("Preparing to do fastpath parse: decimalChar=U+%04X, groupingChar=U+%04X, first ch=U+%04X intOnly=%c strictParse=%c\n",
decimalChar, groupingChar, ch,
(intOnly)?'y':'n',
(strictParse)?'y':'n');
#endif
if(ch==0x002D) { // '-'
j=l+1;//=break - negative number.
/*
parsedNum.append('-',err);
j+=U16_LENGTH(ch);
if(j<l) ch = text.char32At(j);
*/
} else {
parsedNum.append('+',err);
}
while(j<l) {
int32_t digit = ch - zero;
if(digit >=0 && digit <= 9) {
parsedNum.append((char)(digit + '0'), err);
if((digitCount>0) || digit!=0 || j==(l-1)) {
digitCount++;
}
} else if(ch == 0) { // break out
digitCount=-1;
break;
} else if(ch == decimalChar) {
parsedNum.append((char)('.'), err);
decimalChar=0; // no more decimals.
// fastParseHadDecimal=TRUE;
} else if(ch == lookForGroup) {
// ignore grouping char. No decimals, so it has to be an ignorable grouping sep
} else if(intOnly && (lookForGroup!=0) && !u_isdigit(ch)) {
// parsing integer only and can fall through
} else {
digitCount=-1; // fail - fall through to slow parse
break;
}
j+=U16_LENGTH(ch);
ch = text.char32At(j); // for next
}
if(
((j==l)||intOnly) // end OR only parsing integer
&& (digitCount>0)) { // and have at least one digit
fastParseOk=true; // Fast parse OK!
#ifdef SKIP_OPT
debug("SKIP_OPT");
/* for testing, try it the slow way. also */
fastParseOk=false;
parsedNum.clear();
#else
parsePosition.setIndex(position=j);
status[fgStatusInfinite]=false;
#endif
} else {
// was not OK. reset, retry
#ifdef FMT_DEBUG
printf("Fall through: j=%d, l=%d, digitCount=%d\n", j, l, digitCount);
#endif
parsedNum.clear();
}
} else {
#ifdef FMT_DEBUG
printf("Could not fastpath parse. ");
printf("text.length()=%d ", text.length());
printf("posPrefix=%p posSuffix=%p ", posPrefix, posSuffix);
printf("\n");
#endif
}
UnicodeString formatPattern;
toPattern(formatPattern);
if(!fastParseOk
#if UCONFIG_HAVE_PARSEALLINPUT
&& fParseAllInput!=UNUM_YES
#endif
)
{
int32_t formatWidth = fImpl->getOldFormatWidth();
// Match padding before prefix
if (formatWidth > 0 && fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadBeforePrefix) {
position = skipPadding(text, position);
}
// Match positive and negative prefixes; prefer longest match.
int32_t posMatch = compareAffix(text, position, FALSE, TRUE, posPrefix, complexCurrencyParsing, type, currency);
int32_t negMatch = compareAffix(text, position, TRUE, TRUE, negPrefix, complexCurrencyParsing, type, currency);
if (posMatch >= 0 && negMatch >= 0) {
if (posMatch > negMatch) {
negMatch = -1;
} else if (negMatch > posMatch) {
posMatch = -1;
}
}
if (posMatch >= 0) {
position += posMatch;
parsedNum.append('+', err);
} else if (negMatch >= 0) {
position += negMatch;
parsedNum.append('-', err);
} else if (strictParse){
parsePosition.setErrorIndex(position);
return FALSE;
} else {
// Temporary set positive. This might be changed after checking suffix
parsedNum.append('+', err);
}
// Match padding before prefix
if (formatWidth > 0 && fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadAfterPrefix) {
position = skipPadding(text, position);
}
if (! strictParse) {
position = skipUWhiteSpace(text, position);
}
// process digits or Inf, find decimal position
const UnicodeString *inf = &fImpl->getConstSymbol(DecimalFormatSymbols::kInfinitySymbol);
int32_t infLen = (text.compare(position, inf->length(), *inf)
? 0 : inf->length());
position += infLen; // infLen is non-zero when it does equal to infinity
status[fgStatusInfinite] = infLen != 0;
if (infLen != 0) {
parsedNum.append("Infinity", err);
} else {
// We now have a string of digits, possibly with grouping symbols,
// and decimal points. We want to process these into a DigitList.
// We don't want to put a bunch of leading zeros into the DigitList
// though, so we keep track of the location of the decimal point,
// put only significant digits into the DigitList, and adjust the
// exponent as needed.
UBool strictFail = FALSE; // did we exit with a strict parse failure?
int32_t lastGroup = -1; // where did we last see a grouping separator?
int32_t digitStart = position;
int32_t gs2 = fImpl->fEffGrouping.fGrouping2 == 0 ? fImpl->fEffGrouping.fGrouping : fImpl->fEffGrouping.fGrouping2;
const UnicodeString *decimalString;
if (fImpl->fMonetary) {
decimalString = &fImpl->getConstSymbol(DecimalFormatSymbols::kMonetarySeparatorSymbol);
} else {
decimalString = &fImpl->getConstSymbol(DecimalFormatSymbols::kDecimalSeparatorSymbol);
}
UChar32 decimalChar = decimalString->char32At(0);
int32_t decimalStringLength = decimalString->length();
int32_t decimalCharLength = U16_LENGTH(decimalChar);
UBool sawDecimal = FALSE;
UChar32 sawDecimalChar = 0xFFFF;
UBool sawGrouping = FALSE;
UChar32 sawGroupingChar = 0xFFFF;
UBool sawDigit = FALSE;
int32_t backup = -1;
int32_t digit;
// equivalent grouping and decimal support
const UnicodeSet *decimalSet = NULL;
const UnicodeSet *groupingSet = NULL;
if (decimalCharLength == decimalStringLength) {
decimalSet = DecimalFormatStaticSets::getSimilarDecimals(decimalChar, strictParse);
}
if (groupingCharLength == groupingStringLength) {
if (strictParse) {
groupingSet = fStaticSets->fStrictDefaultGroupingSeparators;
} else {
groupingSet = fStaticSets->fDefaultGroupingSeparators;
}
}
// We need to test groupingChar and decimalChar separately from groupingSet and decimalSet, if the sets are even initialized.
// If sawDecimal is TRUE, only consider sawDecimalChar and NOT decimalSet
// If a character matches decimalSet, don't consider it to be a member of the groupingSet.
// We have to track digitCount ourselves, because digits.fCount will
// pin when the maximum allowable digits is reached.
int32_t digitCount = 0;
int32_t integerDigitCount = 0;
for (; position < textLength; )
{
UChar32 ch = text.char32At(position);
/* We recognize all digit ranges, not only the Latin digit range
* '0'..'9'. We do so by using the Character.digit() method,
* which converts a valid Unicode digit to the range 0..9.
*
* The character 'ch' may be a digit. If so, place its value
* from 0 to 9 in 'digit'. First try using the locale digit,
* which may or MAY NOT be a standard Unicode digit range. If
* this fails, try using the standard Unicode digit ranges by
* calling Character.digit(). If this also fails, digit will
* have a value outside the range 0..9.
*/
digit = ch - zero;
if (digit < 0 || digit > 9)
{
digit = u_charDigitValue(ch);
}
// As a last resort, look through the localized digits if the zero digit
// is not a "standard" Unicode digit.
if ( (digit < 0 || digit > 9) && u_charDigitValue(zero) != 0) {
digit = 0;
if ( fImpl->getConstSymbol((DecimalFormatSymbols::ENumberFormatSymbol)(DecimalFormatSymbols::kZeroDigitSymbol)).char32At(0) == ch ) {
break;
}
for (digit = 1 ; digit < 10 ; digit++ ) {
if ( fImpl->getConstSymbol((DecimalFormatSymbols::ENumberFormatSymbol)(DecimalFormatSymbols::kOneDigitSymbol+digit-1)).char32At(0) == ch ) {
break;
}
}
}
if (digit >= 0 && digit <= 9)
{
if (strictParse && backup != -1) {
// comma followed by digit, so group before comma is a
// secondary group. If there was a group separator
// before that, the group must == the secondary group
// length, else it can be <= the the secondary group
// length.
if ((lastGroup != -1 && backup - lastGroup - 1 != gs2) ||
(lastGroup == -1 && position - digitStart - 1 > gs2)) {
strictFail = TRUE;
break;
}
lastGroup = backup;
}
// Cancel out backup setting (see grouping handler below)
backup = -1;
sawDigit = TRUE;
// Note: this will append leading zeros
parsedNum.append((char)(digit + '0'), err);
// count any digit that's not a leading zero
if (digit > 0 || digitCount > 0 || sawDecimal) {
digitCount += 1;
// count any integer digit that's not a leading zero
if (! sawDecimal) {
integerDigitCount += 1;
}
}
position += U16_LENGTH(ch);
}
else if (groupingStringLength > 0 &&
matchGrouping(groupingChar, sawGrouping, sawGroupingChar, groupingSet,
decimalChar, decimalSet,
ch) && groupingUsed)
{
if (sawDecimal) {
break;
}
if (strictParse) {
if ((!sawDigit || backup != -1)) {
// leading group, or two group separators in a row
strictFail = TRUE;
break;
}
}
// Ignore grouping characters, if we are using them, but require
// that they be followed by a digit. Otherwise we backup and
// reprocess them.
backup = position;
position += groupingStringLength;
sawGrouping=TRUE;
// Once we see a grouping character, we only accept that grouping character from then on.
sawGroupingChar=ch;
}
else if (matchDecimal(decimalChar,sawDecimal,sawDecimalChar, decimalSet, ch))
{
if (strictParse) {
if (backup != -1 ||
(lastGroup != -1 && position - lastGroup != fImpl->fEffGrouping.fGrouping + 1)) {
strictFail = TRUE;
break;
}
}
// If we're only parsing integers, or if we ALREADY saw the
// decimal, then don't parse this one.
if (isParseIntegerOnly() || sawDecimal) {
break;
}
parsedNum.append('.', err);
position += decimalStringLength;
sawDecimal = TRUE;
// Once we see a decimal character, we only accept that decimal character from then on.
sawDecimalChar=ch;
// decimalSet is considered to consist of (ch,ch)
}
else {
if(!fBoolFlags.contains(UNUM_PARSE_NO_EXPONENT) || // don't parse if this is set unless..
isScientificNotation()) { // .. it's an exponent format - ignore setting and parse anyways
const UnicodeString *tmp;
tmp = &fImpl->getConstSymbol(DecimalFormatSymbols::kExponentialSymbol);
// TODO: CASE
if (!text.caseCompare(position, tmp->length(), *tmp, U_FOLD_CASE_DEFAULT)) // error code is set below if !sawDigit
{
// Parse sign, if present
int32_t pos = position + tmp->length();
char exponentSign = '+';
if (pos < textLength)
{
tmp = &fImpl->getConstSymbol(DecimalFormatSymbols::kPlusSignSymbol);
if (!text.compare(pos, tmp->length(), *tmp))
{
pos += tmp->length();
}
else {
tmp = &fImpl->getConstSymbol(DecimalFormatSymbols::kMinusSignSymbol);
if (!text.compare(pos, tmp->length(), *tmp))
{
exponentSign = '-';
pos += tmp->length();
}
}
}
UBool sawExponentDigit = FALSE;
while (pos < textLength) {
ch = text[(int32_t)pos];
digit = ch - zero;
if (digit < 0 || digit > 9) {
digit = u_charDigitValue(ch);
}
if (0 <= digit && digit <= 9) {
if (!sawExponentDigit) {
parsedNum.append('E', err);
parsedNum.append(exponentSign, err);
sawExponentDigit = TRUE;
}
++pos;
parsedNum.append((char)(digit + '0'), err);
} else {
break;
}
}
if (sawExponentDigit) {
position = pos; // Advance past the exponent
}
break; // Whether we fail or succeed, we exit this loop
} else {
break;
}
} else { // not parsing exponent
break;
}
}
}
// if we didn't see a decimal and it is required, check to see if the pattern had one
if(!sawDecimal && isDecimalPatternMatchRequired())
{
if(formatPattern.indexOf(DecimalFormatSymbols::kDecimalSeparatorSymbol) != 0)
{
parsePosition.setIndex(oldStart);
parsePosition.setErrorIndex(position);
debug("decimal point match required fail!");
return FALSE;
}
}
if (backup != -1)
{
position = backup;
}
if (strictParse && !sawDecimal) {
if (lastGroup != -1 && position - lastGroup != fImpl->fEffGrouping.fGrouping + 1) {
strictFail = TRUE;
}
}
if (strictFail) {
// only set with strictParse and a grouping separator error
parsePosition.setIndex(oldStart);
parsePosition.setErrorIndex(position);
debug("strictFail!");
return FALSE;
}
// If there was no decimal point we have an integer
// If none of the text string was recognized. For example, parse
// "x" with pattern "#0.00" (return index and error index both 0)
// parse "$" with pattern "$#0.00". (return index 0 and error index
// 1).
if (!sawDigit && digitCount == 0) {
#ifdef FMT_DEBUG
debug("none of text rec");
printf("position=%d\n",position);
#endif
parsePosition.setIndex(oldStart);
parsePosition.setErrorIndex(oldStart);
return FALSE;
}
}
// Match padding before suffix
if (formatWidth > 0 && fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadBeforeSuffix) {
position = skipPadding(text, position);
}
int32_t posSuffixMatch = -1, negSuffixMatch = -1;
// Match positive and negative suffixes; prefer longest match.
if (posMatch >= 0 || (!strictParse && negMatch < 0)) {
posSuffixMatch = compareAffix(text, position, FALSE, FALSE, posSuffix, complexCurrencyParsing, type, currency);
}
if (negMatch >= 0) {
negSuffixMatch = compareAffix(text, position, TRUE, FALSE, negSuffix, complexCurrencyParsing, type, currency);
}
if (posSuffixMatch >= 0 && negSuffixMatch >= 0) {
if (posSuffixMatch > negSuffixMatch) {
negSuffixMatch = -1;
} else if (negSuffixMatch > posSuffixMatch) {
posSuffixMatch = -1;
}
}
// Fail if neither or both
if (strictParse && ((posSuffixMatch >= 0) == (negSuffixMatch >= 0))) {
parsePosition.setErrorIndex(position);
debug("neither or both");
return FALSE;
}
position += (posSuffixMatch >= 0 ? posSuffixMatch : (negSuffixMatch >= 0 ? negSuffixMatch : 0));
// Match padding before suffix
if (formatWidth > 0 && fImpl->fAffixes.fPadPosition == DigitAffixesAndPadding::kPadAfterSuffix) {
position = skipPadding(text, position);
}
parsePosition.setIndex(position);
parsedNum.data()[0] = (posSuffixMatch >= 0 || (!strictParse && negMatch < 0 && negSuffixMatch < 0)) ? '+' : '-';
#ifdef FMT_DEBUG
printf("PP -> %d, SLOW = [%s]! pp=%d, os=%d, err=%s\n", position, parsedNum.data(), parsePosition.getIndex(),oldStart,u_errorName(err));
#endif
} /* end SLOW parse */
if(parsePosition.getIndex() == oldStart)
{
#ifdef FMT_DEBUG
printf(" PP didnt move, err\n");
#endif
parsePosition.setErrorIndex(position);
return FALSE;
}
#if UCONFIG_HAVE_PARSEALLINPUT
else if (fParseAllInput==UNUM_YES&&parsePosition.getIndex()!=textLength)
{
#ifdef FMT_DEBUG
printf(" PP didnt consume all (UNUM_YES), err\n");
#endif
parsePosition.setErrorIndex(position);
return FALSE;
}
#endif
// uint32_t bits = (fastParseOk?kFastpathOk:0) |
// (fastParseHadDecimal?0:kNoDecimal);
//printf("FPOK=%d, FPHD=%d, bits=%08X\n", fastParseOk, fastParseHadDecimal, bits);
digits.set(parsedNum.toStringPiece(),
err,
0//bits
);
if (U_FAILURE(err)) {
#ifdef FMT_DEBUG
printf(" err setting %s\n", u_errorName(err));
#endif
parsePosition.setErrorIndex(position);
return FALSE;
}
// check if we missed a required decimal point
if(fastParseOk && isDecimalPatternMatchRequired())
{
if(formatPattern.indexOf(DecimalFormatSymbols::kDecimalSeparatorSymbol) != 0)
{
parsePosition.setIndex(oldStart);
parsePosition.setErrorIndex(position);
debug("decimal point match required fail!");
return FALSE;
}
}
return TRUE;
}
/**
* Starting at position, advance past a run of pad characters, if any.
* Return the index of the first character after position that is not a pad
* character. Result is >= position.
*/
int32_t DecimalFormat::skipPadding(const UnicodeString& text, int32_t position) const {
int32_t padLen = U16_LENGTH(fImpl->fAffixes.fPadChar);
while (position < text.length() &&
text.char32At(position) == fImpl->fAffixes.fPadChar) {
position += padLen;
}
return position;
}
/**
* Return the length matched by the given affix, or -1 if none.
* Runs of white space in the affix, match runs of white space in
* the input. Pattern white space and input white space are
* determined differently; see code.
* @param text input text
* @param pos offset into input at which to begin matching
* @param isNegative
* @param isPrefix
* @param affixPat affix pattern used for currency affix comparison.
* @param complexCurrencyParsing whether it is currency parsing or not
* @param type the currency type to parse against, LONG_NAME only or not.
* @param currency return value for parsed currency, for generic
* currency parsing mode, or null for normal parsing. In generic
* currency parsing mode, any currency is parsed, not just the
* currency that this formatter is set to.
* @return length of input that matches, or -1 if match failure
*/
int32_t DecimalFormat::compareAffix(const UnicodeString& text,
int32_t pos,
UBool isNegative,
UBool isPrefix,
const UnicodeString* affixPat,
UBool complexCurrencyParsing,
int8_t type,
UChar* currency) const
{
const UnicodeString *patternToCompare;
if (currency != NULL ||
(fImpl->fMonetary && complexCurrencyParsing)) {
if (affixPat != NULL) {
return compareComplexAffix(*affixPat, text, pos, type, currency);
}
}
if (isNegative) {
if (isPrefix) {
patternToCompare = &fImpl->fAffixes.fNegativePrefix.getOtherVariant().toString();
}
else {
patternToCompare = &fImpl->fAffixes.fNegativeSuffix.getOtherVariant().toString();
}
}
else {
if (isPrefix) {
patternToCompare = &fImpl->fAffixes.fPositivePrefix.getOtherVariant().toString();
}
else {
patternToCompare = &fImpl->fAffixes.fPositiveSuffix.getOtherVariant().toString();
}
}
return compareSimpleAffix(*patternToCompare, text, pos, isLenient());
}
UBool DecimalFormat::equalWithSignCompatibility(UChar32 lhs, UChar32 rhs) const {
if (lhs == rhs) {
return TRUE;
}
U_ASSERT(fStaticSets != NULL); // should already be loaded
const UnicodeSet *minusSigns = fStaticSets->fMinusSigns;
const UnicodeSet *plusSigns = fStaticSets->fPlusSigns;
return (minusSigns->contains(lhs) && minusSigns->contains(rhs)) ||
(plusSigns->contains(lhs) && plusSigns->contains(rhs));
}
// check for LRM 0x200E, RLM 0x200F, ALM 0x061C
#define IS_BIDI_MARK(c) (c==0x200E || c==0x200F || c==0x061C)
#define TRIM_BUFLEN 32
UnicodeString& DecimalFormat::trimMarksFromAffix(const UnicodeString& affix, UnicodeString& trimmedAffix) {
UChar trimBuf[TRIM_BUFLEN];
int32_t affixLen = affix.length();
int32_t affixPos, trimLen = 0;
for (affixPos = 0; affixPos < affixLen; affixPos++) {
UChar c = affix.charAt(affixPos);
if (!IS_BIDI_MARK(c)) {
if (trimLen < TRIM_BUFLEN) {
trimBuf[trimLen++] = c;
} else {
trimLen = 0;
break;
}
}
}
return (trimLen > 0)? trimmedAffix.setTo(trimBuf, trimLen): trimmedAffix.setTo(affix);
}
/**
* Return the length matched by the given affix, or -1 if none.
* Runs of white space in the affix, match runs of white space in
* the input. Pattern white space and input white space are
* determined differently; see code.
* @param affix pattern string, taken as a literal
* @param input input text
* @param pos offset into input at which to begin matching
* @return length of input that matches, or -1 if match failure
*/
int32_t DecimalFormat::compareSimpleAffix(const UnicodeString& affix,
const UnicodeString& input,
int32_t pos,
UBool lenient) const {
int32_t start = pos;
UnicodeString trimmedAffix;
// For more efficiency we should keep lazily-created trimmed affixes around in
// instance variables instead of trimming each time they are used (the next step)
trimMarksFromAffix(affix, trimmedAffix);
UChar32 affixChar = trimmedAffix.char32At(0);
int32_t affixLength = trimmedAffix.length();
int32_t inputLength = input.length();
int32_t affixCharLength = U16_LENGTH(affixChar);
UnicodeSet *affixSet;
UErrorCode status = U_ZERO_ERROR;
U_ASSERT(fStaticSets != NULL); // should already be loaded
if (U_FAILURE(status)) {
return -1;
}
if (!lenient) {
affixSet = fStaticSets->fStrictDashEquivalents;
// If the trimmedAffix is exactly one character long and that character
// is in the dash set and the very next input character is also
// in the dash set, return a match.
if (affixCharLength == affixLength && affixSet->contains(affixChar)) {
UChar32 ic = input.char32At(pos);
if (affixSet->contains(ic)) {
pos += U16_LENGTH(ic);
pos = skipBidiMarks(input, pos); // skip any trailing bidi marks
return pos - start;
}
}
for (int32_t i = 0; i < affixLength; ) {
UChar32 c = trimmedAffix.char32At(i);
int32_t len = U16_LENGTH(c);
if (PatternProps::isWhiteSpace(c)) {
// We may have a pattern like: \u200F \u0020
// and input text like: \u200F \u0020
// Note that U+200F and U+0020 are Pattern_White_Space but only
// U+0020 is UWhiteSpace. So we have to first do a direct
// match of the run of Pattern_White_Space in the pattern,
// then match any extra characters.
UBool literalMatch = FALSE;
while (pos < inputLength) {
UChar32 ic = input.char32At(pos);
if (ic == c) {
literalMatch = TRUE;
i += len;
pos += len;
if (i == affixLength) {
break;
}
c = trimmedAffix.char32At(i);
len = U16_LENGTH(c);
if (!PatternProps::isWhiteSpace(c)) {
break;
}
} else if (IS_BIDI_MARK(ic)) {
pos ++; // just skip over this input text
} else {
break;
}
}
// Advance over run in pattern
i = skipPatternWhiteSpace(trimmedAffix, i);
// Advance over run in input text
// Must see at least one white space char in input,
// unless we've already matched some characters literally.
int32_t s = pos;
pos = skipUWhiteSpace(input, pos);
if (pos == s && !literalMatch) {
return -1;
}
// If we skip UWhiteSpace in the input text, we need to skip it in the pattern.
// Otherwise, the previous lines may have skipped over text (such as U+00A0) that
// is also in the trimmedAffix.
i = skipUWhiteSpace(trimmedAffix, i);
} else {
UBool match = FALSE;
while (pos < inputLength) {
UChar32 ic = input.char32At(pos);
if (!match && ic == c) {
i += len;
pos += len;
match = TRUE;
} else if (IS_BIDI_MARK(ic)) {
pos++; // just skip over this input text
} else {
break;
}
}
if (!match) {
return -1;
}
}
}
} else {
UBool match = FALSE;
affixSet = fStaticSets->fDashEquivalents;
if (affixCharLength == affixLength && affixSet->contains(affixChar)) {
pos = skipUWhiteSpaceAndMarks(input, pos);
UChar32 ic = input.char32At(pos);
if (affixSet->contains(ic)) {
pos += U16_LENGTH(ic);
pos = skipBidiMarks(input, pos);
return pos - start;
}
}
for (int32_t i = 0; i < affixLength; )
{
//i = skipRuleWhiteSpace(trimmedAffix, i);
i = skipUWhiteSpace(trimmedAffix, i);
pos = skipUWhiteSpaceAndMarks(input, pos);
if (i >= affixLength || pos >= inputLength) {
break;
}
UChar32 c = trimmedAffix.char32At(i);
UChar32 ic = input.char32At(pos);
if (!equalWithSignCompatibility(ic, c)) {
return -1;
}
match = TRUE;
i += U16_LENGTH(c);
pos += U16_LENGTH(ic);
pos = skipBidiMarks(input, pos);
}
if (affixLength > 0 && ! match) {
return -1;
}
}
return pos - start;
}
/**
* Skip over a run of zero or more Pattern_White_Space characters at
* pos in text.
*/
int32_t DecimalFormat::skipPatternWhiteSpace(const UnicodeString& text, int32_t pos) {
const UChar* s = text.getBuffer();
return (int32_t)(PatternProps::skipWhiteSpace(s + pos, text.length() - pos) - s);
}
/**
* Skip over a run of zero or more isUWhiteSpace() characters at pos
* in text.
*/
int32_t DecimalFormat::skipUWhiteSpace(const UnicodeString& text, int32_t pos) {
while (pos < text.length()) {
UChar32 c = text.char32At(pos);
if (!u_isUWhiteSpace(c)) {
break;
}
pos += U16_LENGTH(c);
}
return pos;
}
/**
* Skip over a run of zero or more isUWhiteSpace() characters or bidi marks at pos
* in text.
*/
int32_t DecimalFormat::skipUWhiteSpaceAndMarks(const UnicodeString& text, int32_t pos) {
while (pos < text.length()) {
UChar32 c = text.char32At(pos);
if (!u_isUWhiteSpace(c) && !IS_BIDI_MARK(c)) { // u_isUWhiteSpace doesn't include LRM,RLM,ALM
break;
}
pos += U16_LENGTH(c);
}
return pos;
}
/**
* Skip over a run of zero or more bidi marks at pos in text.
*/
int32_t DecimalFormat::skipBidiMarks(const UnicodeString& text, int32_t pos) {
while (pos < text.length()) {
UChar c = text.charAt(pos);
if (!IS_BIDI_MARK(c)) {
break;
}
pos++;
}
return pos;
}
/**
* Return the length matched by the given affix, or -1 if none.
* @param affixPat pattern string
* @param input input text
* @param pos offset into input at which to begin matching
* @param type the currency type to parse against, LONG_NAME only or not.
* @param currency return value for parsed currency, for generic
* currency parsing mode, or null for normal parsing. In generic
* currency parsing mode, any currency is parsed, not just the
* currency that this formatter is set to.
* @return length of input that matches, or -1 if match failure
*/
int32_t DecimalFormat::compareComplexAffix(const UnicodeString& affixPat,
const UnicodeString& text,
int32_t pos,
int8_t type,
UChar* currency) const
{
int32_t start = pos;
U_ASSERT(currency != NULL || fImpl->fMonetary);
for (int32_t i=0;
i<affixPat.length() && pos >= 0; ) {
UChar32 c = affixPat.char32At(i);
i += U16_LENGTH(c);
if (c == kQuote) {
U_ASSERT(i <= affixPat.length());
c = affixPat.char32At(i);
i += U16_LENGTH(c);
const UnicodeString* affix = NULL;
switch (c) {
case kCurrencySign: {
// since the currency names in choice format is saved
// the same way as other currency names,
// do not need to do currency choice parsing here.
// the general currency parsing parse against all names,
// including names in choice format.
UBool intl = i<affixPat.length() &&
affixPat.char32At(i) == kCurrencySign;
if (intl) {
++i;
}
UBool plural = i<affixPat.length() &&
affixPat.char32At(i) == kCurrencySign;
if (plural) {
++i;
intl = FALSE;
}
// Parse generic currency -- anything for which we
// have a display name, or any 3-letter ISO code.
// Try to parse display name for our locale; first
// determine our locale.
const char* loc = fCurrencyPluralInfo->getLocale().getName();
ParsePosition ppos(pos);
UChar curr[4];
UErrorCode ec = U_ZERO_ERROR;
// Delegate parse of display name => ISO code to Currency
uprv_parseCurrency(loc, text, ppos, type, curr, ec);
// If parse succeeds, populate currency[0]
if (U_SUCCESS(ec) && ppos.getIndex() != pos) {
if (currency) {
u_strcpy(currency, curr);
} else {
// The formatter is currency-style but the client has not requested
// the value of the parsed currency. In this case, if that value does
// not match the formatter's current value, then the parse fails.
UChar effectiveCurr[4];
getEffectiveCurrency(effectiveCurr, ec);
if ( U_FAILURE(ec) || u_strncmp(curr,effectiveCurr,4) != 0 ) {
pos = -1;
continue;
}
}
pos = ppos.getIndex();
} else if (!isLenient()){
pos = -1;
}
continue;
}
case kPatternPercent:
affix = &fImpl->getConstSymbol(DecimalFormatSymbols::kPercentSymbol);
break;
case kPatternPerMill:
affix = &fImpl->getConstSymbol(DecimalFormatSymbols::kPerMillSymbol);
break;
case kPatternPlus:
affix = &fImpl->getConstSymbol(DecimalFormatSymbols::kPlusSignSymbol);
break;
case kPatternMinus:
affix = &fImpl->getConstSymbol(DecimalFormatSymbols::kMinusSignSymbol);
break;
default:
// fall through to affix!=0 test, which will fail
break;
}
if (affix != NULL) {
pos = match(text, pos, *affix);
continue;
}
}
pos = match(text, pos, c);
if (PatternProps::isWhiteSpace(c)) {
i = skipPatternWhiteSpace(affixPat, i);
}
}
return pos - start;
}
/**
* Match a single character at text[pos] and return the index of the
* next character upon success. Return -1 on failure. If
* ch is a Pattern_White_Space then match a run of white space in text.
*/
int32_t DecimalFormat::match(const UnicodeString& text, int32_t pos, UChar32 ch) {
if (PatternProps::isWhiteSpace(ch)) {
// Advance over run of white space in input text
// Must see at least one white space char in input
int32_t s = pos;
pos = skipPatternWhiteSpace(text, pos);
if (pos == s) {
return -1;
}
return pos;
}
return (pos >= 0 && text.char32At(pos) == ch) ?
(pos + U16_LENGTH(ch)) : -1;
}
/**
* Match a string at text[pos] and return the index of the next
* character upon success. Return -1 on failure. Match a run of
* white space in str with a run of white space in text.
*/
int32_t DecimalFormat::match(const UnicodeString& text, int32_t pos, const UnicodeString& str) {
for (int32_t i=0; i<str.length() && pos >= 0; ) {
UChar32 ch = str.char32At(i);
i += U16_LENGTH(ch);
if (PatternProps::isWhiteSpace(ch)) {
i = skipPatternWhiteSpace(str, i);
}
pos = match(text, pos, ch);
}
return pos;
}
UBool DecimalFormat::matchSymbol(const UnicodeString &text, int32_t position, int32_t length, const UnicodeString &symbol,
UnicodeSet *sset, UChar32 schar)
{
if (sset != NULL) {
return sset->contains(schar);
}
return text.compare(position, length, symbol) == 0;
}
UBool DecimalFormat::matchDecimal(UChar32 symbolChar,
UBool sawDecimal, UChar32 sawDecimalChar,
const UnicodeSet *sset, UChar32 schar) {
if(sawDecimal) {
return schar==sawDecimalChar;
} else if(schar==symbolChar) {
return TRUE;
} else if(sset!=NULL) {
return sset->contains(schar);
} else {
return FALSE;
}
}
UBool DecimalFormat::matchGrouping(UChar32 groupingChar,
UBool sawGrouping, UChar32 sawGroupingChar,
const UnicodeSet *sset,
UChar32 /*decimalChar*/, const UnicodeSet *decimalSet,
UChar32 schar) {
if(sawGrouping) {
return schar==sawGroupingChar; // previously found
} else if(schar==groupingChar) {
return TRUE; // char from symbols
} else if(sset!=NULL) {
return sset->contains(schar) && // in groupingSet but...
((decimalSet==NULL) || !decimalSet->contains(schar)); // Exclude decimalSet from groupingSet
} else {
return FALSE;
}
}
//------------------------------------------------------------------------------
// Gets the pointer to the localized decimal format symbols
const DecimalFormatSymbols*
DecimalFormat::getDecimalFormatSymbols() const
{
return &fImpl->getDecimalFormatSymbols();
}
//------------------------------------------------------------------------------
// De-owning the current localized symbols and adopt the new symbols.
void
DecimalFormat::adoptDecimalFormatSymbols(DecimalFormatSymbols* symbolsToAdopt)
{
if (symbolsToAdopt == NULL) {
return; // do not allow caller to set fSymbols to NULL
}
fImpl->adoptDecimalFormatSymbols(symbolsToAdopt);
}
//------------------------------------------------------------------------------
// Setting the symbols is equlivalent to adopting a newly created localized
// symbols.
void
DecimalFormat::setDecimalFormatSymbols(const DecimalFormatSymbols& symbols)
{
adoptDecimalFormatSymbols(new DecimalFormatSymbols(symbols));
}
const CurrencyPluralInfo*
DecimalFormat::getCurrencyPluralInfo(void) const
{
return fCurrencyPluralInfo;
}
void
DecimalFormat::adoptCurrencyPluralInfo(CurrencyPluralInfo* toAdopt)
{
if (toAdopt != NULL) {
delete fCurrencyPluralInfo;
fCurrencyPluralInfo = toAdopt;
// re-set currency affix patterns and currency affixes.
if (fImpl->fMonetary) {
UErrorCode status = U_ZERO_ERROR;
if (fAffixPatternsForCurrency) {
deleteHashForAffixPattern();
}
setupCurrencyAffixPatterns(status);
}
}
}
void
DecimalFormat::setCurrencyPluralInfo(const CurrencyPluralInfo& info)
{
adoptCurrencyPluralInfo(info.clone());
}
//------------------------------------------------------------------------------
// Gets the positive prefix of the number pattern.
UnicodeString&
DecimalFormat::getPositivePrefix(UnicodeString& result) const
{
return fImpl->getPositivePrefix(result);
}
//------------------------------------------------------------------------------
// Sets the positive prefix of the number pattern.
void
DecimalFormat::setPositivePrefix(const UnicodeString& newValue)
{
fImpl->setPositivePrefix(newValue);
}
//------------------------------------------------------------------------------
// Gets the negative prefix of the number pattern.
UnicodeString&
DecimalFormat::getNegativePrefix(UnicodeString& result) const
{
return fImpl->getNegativePrefix(result);
}
//------------------------------------------------------------------------------
// Gets the negative prefix of the number pattern.
void
DecimalFormat::setNegativePrefix(const UnicodeString& newValue)
{
fImpl->setNegativePrefix(newValue);
}
//------------------------------------------------------------------------------
// Gets the positive suffix of the number pattern.
UnicodeString&
DecimalFormat::getPositiveSuffix(UnicodeString& result) const
{
return fImpl->getPositiveSuffix(result);
}
//------------------------------------------------------------------------------
// Sets the positive suffix of the number pattern.
void
DecimalFormat::setPositiveSuffix(const UnicodeString& newValue)
{
fImpl->setPositiveSuffix(newValue);
}
//------------------------------------------------------------------------------
// Gets the negative suffix of the number pattern.
UnicodeString&
DecimalFormat::getNegativeSuffix(UnicodeString& result) const
{
return fImpl->getNegativeSuffix(result);
}
//------------------------------------------------------------------------------
// Sets the negative suffix of the number pattern.
void
DecimalFormat::setNegativeSuffix(const UnicodeString& newValue)
{
fImpl->setNegativeSuffix(newValue);
}
//------------------------------------------------------------------------------
// Gets the multiplier of the number pattern.
// Multipliers are stored as decimal numbers (DigitLists) because that
// is the most convenient for muliplying or dividing the numbers to be formatted.
// A NULL multiplier implies one, and the scaling operations are skipped.
int32_t
DecimalFormat::getMultiplier() const
{
return fImpl->getMultiplier();
}
//------------------------------------------------------------------------------
// Sets the multiplier of the number pattern.
void
DecimalFormat::setMultiplier(int32_t newValue)
{
fImpl->setMultiplier(newValue);
}
/**
* Get the rounding increment.
* @return A positive rounding increment, or 0.0 if rounding
* is not in effect.
* @see #setRoundingIncrement
* @see #getRoundingMode
* @see #setRoundingMode
*/
double DecimalFormat::getRoundingIncrement() const {
return fImpl->getRoundingIncrement();
}
/**
* Set the rounding increment. This method also controls whether
* rounding is enabled.
* @param newValue A positive rounding increment, or 0.0 to disable rounding.
* Negative increments are equivalent to 0.0.
* @see #getRoundingIncrement
* @see #getRoundingMode
* @see #setRoundingMode
*/
void DecimalFormat::setRoundingIncrement(double newValue) {
fImpl->setRoundingIncrement(newValue);
}
/**
* Get the rounding mode.
* @return A rounding mode
* @see #setRoundingIncrement
* @see #getRoundingIncrement
* @see #setRoundingMode
*/
DecimalFormat::ERoundingMode DecimalFormat::getRoundingMode() const {
return fImpl->getRoundingMode();
}
/**
* Set the rounding mode. This has no effect unless the rounding
* increment is greater than zero.
* @param roundingMode A rounding mode
* @see #setRoundingIncrement
* @see #getRoundingIncrement
* @see #getRoundingMode
*/
void DecimalFormat::setRoundingMode(ERoundingMode roundingMode) {
fImpl->setRoundingMode(roundingMode);
}
/**
* Get the width to which the output of <code>format()</code> is padded.
* @return the format width, or zero if no padding is in effect
* @see #setFormatWidth
* @see #getPadCharacter
* @see #setPadCharacter
* @see #getPadPosition
* @see #setPadPosition
*/
int32_t DecimalFormat::getFormatWidth() const {
return fImpl->getFormatWidth();
}
/**
* Set the width to which the output of <code>format()</code> is padded.
* This method also controls whether padding is enabled.
* @param width the width to which to pad the result of
* <code>format()</code>, or zero to disable padding. A negative
* width is equivalent to 0.
* @see #getFormatWidth
* @see #getPadCharacter
* @see #setPadCharacter
* @see #getPadPosition
* @see #setPadPosition
*/
void DecimalFormat::setFormatWidth(int32_t width) {
int32_t formatWidth = (width > 0) ? width : 0;
fImpl->setFormatWidth(formatWidth);
}
UnicodeString DecimalFormat::getPadCharacterString() const {
return UnicodeString(fImpl->getPadCharacter());
}
void DecimalFormat::setPadCharacter(const UnicodeString &padChar) {
UChar pad;
if (padChar.length() > 0) {
pad = padChar.char32At(0);
}
else {
pad = kDefaultPad;
}
fImpl->setPadCharacter(pad);
}
static DecimalFormat::EPadPosition fromPadPosition(DigitAffixesAndPadding::EPadPosition padPos) {
switch (padPos) {
case DigitAffixesAndPadding::kPadBeforePrefix:
return DecimalFormat::kPadBeforePrefix;
case DigitAffixesAndPadding::kPadAfterPrefix:
return DecimalFormat::kPadAfterPrefix;
case DigitAffixesAndPadding::kPadBeforeSuffix:
return DecimalFormat::kPadBeforeSuffix;
case DigitAffixesAndPadding::kPadAfterSuffix:
return DecimalFormat::kPadAfterSuffix;
default:
U_ASSERT(FALSE);
break;
}
return DecimalFormat::kPadBeforePrefix;
}
/**
* Get the position at which padding will take place. This is the location
* at which padding will be inserted if the result of <code>format()</code>
* is shorter than the format width.
* @return the pad position, one of <code>kPadBeforePrefix</code>,
* <code>kPadAfterPrefix</code>, <code>kPadBeforeSuffix</code>, or
* <code>kPadAfterSuffix</code>.
* @see #setFormatWidth
* @see #getFormatWidth
* @see #setPadCharacter
* @see #getPadCharacter
* @see #setPadPosition
* @see #kPadBeforePrefix
* @see #kPadAfterPrefix
* @see #kPadBeforeSuffix
* @see #kPadAfterSuffix
*/
DecimalFormat::EPadPosition DecimalFormat::getPadPosition() const {
return fromPadPosition(fImpl->getPadPosition());
}
static DigitAffixesAndPadding::EPadPosition toPadPosition(DecimalFormat::EPadPosition padPos) {
switch (padPos) {
case DecimalFormat::kPadBeforePrefix:
return DigitAffixesAndPadding::kPadBeforePrefix;
case DecimalFormat::kPadAfterPrefix:
return DigitAffixesAndPadding::kPadAfterPrefix;
case DecimalFormat::kPadBeforeSuffix:
return DigitAffixesAndPadding::kPadBeforeSuffix;
case DecimalFormat::kPadAfterSuffix:
return DigitAffixesAndPadding::kPadAfterSuffix;
default:
U_ASSERT(FALSE);
break;
}
return DigitAffixesAndPadding::kPadBeforePrefix;
}
/**
* <strong><font face=helvetica color=red>NEW</font></strong>
* Set the position at which padding will take place. This is the location
* at which padding will be inserted if the result of <code>format()</code>
* is shorter than the format width. This has no effect unless padding is
* enabled.
* @param padPos the pad position, one of <code>kPadBeforePrefix</code>,
* <code>kPadAfterPrefix</code>, <code>kPadBeforeSuffix</code>, or
* <code>kPadAfterSuffix</code>.
* @see #setFormatWidth
* @see #getFormatWidth
* @see #setPadCharacter
* @see #getPadCharacter
* @see #getPadPosition
* @see #kPadBeforePrefix
* @see #kPadAfterPrefix
* @see #kPadBeforeSuffix
* @see #kPadAfterSuffix
*/
void DecimalFormat::setPadPosition(EPadPosition padPos) {
fImpl->setPadPosition(toPadPosition(padPos));
}
/**
* Return whether or not scientific notation is used.
* @return TRUE if this object formats and parses scientific notation
* @see #setScientificNotation
* @see #getMinimumExponentDigits
* @see #setMinimumExponentDigits
* @see #isExponentSignAlwaysShown
* @see #setExponentSignAlwaysShown
*/
UBool DecimalFormat::isScientificNotation() const {
return fImpl->isScientificNotation();
}
/**
* Set whether or not scientific notation is used.
* @param useScientific TRUE if this object formats and parses scientific
* notation
* @see #isScientificNotation
* @see #getMinimumExponentDigits
* @see #setMinimumExponentDigits
* @see #isExponentSignAlwaysShown
* @see #setExponentSignAlwaysShown
*/
void DecimalFormat::setScientificNotation(UBool useScientific) {
fImpl->setScientificNotation(useScientific);
}
/**
* Return the minimum exponent digits that will be shown.
* @return the minimum exponent digits that will be shown
* @see #setScientificNotation
* @see #isScientificNotation
* @see #setMinimumExponentDigits
* @see #isExponentSignAlwaysShown
* @see #setExponentSignAlwaysShown
*/
int8_t DecimalFormat::getMinimumExponentDigits() const {
return fImpl->getMinimumExponentDigits();
}
/**
* Set the minimum exponent digits that will be shown. This has no
* effect unless scientific notation is in use.
* @param minExpDig a value >= 1 indicating the fewest exponent digits
* that will be shown. Values less than 1 will be treated as 1.
* @see #setScientificNotation
* @see #isScientificNotation
* @see #getMinimumExponentDigits
* @see #isExponentSignAlwaysShown
* @see #setExponentSignAlwaysShown
*/
void DecimalFormat::setMinimumExponentDigits(int8_t minExpDig) {
int32_t minExponentDigits = (int8_t)((minExpDig > 0) ? minExpDig : 1);
fImpl->setMinimumExponentDigits(minExponentDigits);
}
/**
* Return whether the exponent sign is always shown.
* @return TRUE if the exponent is always prefixed with either the
* localized minus sign or the localized plus sign, false if only negative
* exponents are prefixed with the localized minus sign.
* @see #setScientificNotation
* @see #isScientificNotation
* @see #setMinimumExponentDigits
* @see #getMinimumExponentDigits
* @see #setExponentSignAlwaysShown
*/
UBool DecimalFormat::isExponentSignAlwaysShown() const {
return fImpl->isExponentSignAlwaysShown();
}
/**
* Set whether the exponent sign is always shown. This has no effect
* unless scientific notation is in use.
* @param expSignAlways TRUE if the exponent is always prefixed with either
* the localized minus sign or the localized plus sign, false if only
* negative exponents are prefixed with the localized minus sign.
* @see #setScientificNotation
* @see #isScientificNotation
* @see #setMinimumExponentDigits
* @see #getMinimumExponentDigits
* @see #isExponentSignAlwaysShown
*/
void DecimalFormat::setExponentSignAlwaysShown(UBool expSignAlways) {
fImpl->setExponentSignAlwaysShown(expSignAlways);
}
//------------------------------------------------------------------------------
// Gets the grouping size of the number pattern. For example, thousand or 10
// thousand groupings.
int32_t
DecimalFormat::getGroupingSize() const
{
return fImpl->getGroupingSize();
}
//------------------------------------------------------------------------------
// Gets the grouping size of the number pattern.
void
DecimalFormat::setGroupingSize(int32_t newValue)
{
fImpl->setGroupingSize(newValue);
}
//------------------------------------------------------------------------------
int32_t
DecimalFormat::getSecondaryGroupingSize() const
{
return fImpl->getSecondaryGroupingSize();
}
//------------------------------------------------------------------------------
void
DecimalFormat::setSecondaryGroupingSize(int32_t newValue)
{
fImpl->setSecondaryGroupingSize(newValue);
}
//------------------------------------------------------------------------------
int32_t
DecimalFormat::getMinimumGroupingDigits() const
{
return fImpl->getMinimumGroupingDigits();
}
//------------------------------------------------------------------------------
void
DecimalFormat::setMinimumGroupingDigits(int32_t newValue)
{
fImpl->setMinimumGroupingDigits(newValue);
}
//------------------------------------------------------------------------------
// Checks if to show the decimal separator.
UBool
DecimalFormat::isDecimalSeparatorAlwaysShown() const
{
return fImpl->isDecimalSeparatorAlwaysShown();
}
//------------------------------------------------------------------------------
// Sets to always show the decimal separator.
void
DecimalFormat::setDecimalSeparatorAlwaysShown(UBool newValue)
{
fImpl->setDecimalSeparatorAlwaysShown(newValue);
}
//------------------------------------------------------------------------------
// Checks if decimal point pattern match is required
UBool
DecimalFormat::isDecimalPatternMatchRequired(void) const
{
return fBoolFlags.contains(UNUM_PARSE_DECIMAL_MARK_REQUIRED);
}
//------------------------------------------------------------------------------
// Checks if decimal point pattern match is required
void
DecimalFormat::setDecimalPatternMatchRequired(UBool newValue)
{
fBoolFlags.set(UNUM_PARSE_DECIMAL_MARK_REQUIRED, newValue);
}
//------------------------------------------------------------------------------
// Emits the pattern of this DecimalFormat instance.
UnicodeString&
DecimalFormat::toPattern(UnicodeString& result) const
{
return fImpl->toPattern(result);
}
//------------------------------------------------------------------------------
// Emits the localized pattern this DecimalFormat instance.
UnicodeString&
DecimalFormat::toLocalizedPattern(UnicodeString& result) const
{
// toLocalizedPattern is deprecated, so we just make it the same as
// toPattern.
return fImpl->toPattern(result);
}
//------------------------------------------------------------------------------
void
DecimalFormat::applyPattern(const UnicodeString& pattern, UErrorCode& status)
{
fImpl->applyPattern(pattern, status);
}
//------------------------------------------------------------------------------
void
DecimalFormat::applyPattern(const UnicodeString& pattern,
UParseError& parseError,
UErrorCode& status)
{
fImpl->applyPattern(pattern, parseError, status);
}
//------------------------------------------------------------------------------
void
DecimalFormat::applyLocalizedPattern(const UnicodeString& pattern, UErrorCode& status)
{
fImpl->applyLocalizedPattern(pattern, status);
}
//------------------------------------------------------------------------------
void
DecimalFormat::applyLocalizedPattern(const UnicodeString& pattern,
UParseError& parseError,
UErrorCode& status)
{
fImpl->applyLocalizedPattern(pattern, parseError, status);
}
//------------------------------------------------------------------------------
/**
* Sets the maximum number of digits allowed in the integer portion of a
* number.
* @see NumberFormat#setMaximumIntegerDigits
*/
void DecimalFormat::setMaximumIntegerDigits(int32_t newValue) {
newValue = _min(newValue, gDefaultMaxIntegerDigits);
NumberFormat::setMaximumIntegerDigits(newValue);
fImpl->updatePrecision();
}
/**
* Sets the minimum number of digits allowed in the integer portion of a
* number. This override limits the integer digit count to 309.
* @see NumberFormat#setMinimumIntegerDigits
*/
void DecimalFormat::setMinimumIntegerDigits(int32_t newValue) {
newValue = _min(newValue, kDoubleIntegerDigits);
NumberFormat::setMinimumIntegerDigits(newValue);
fImpl->updatePrecision();
}
/**
* Sets the maximum number of digits allowed in the fraction portion of a
* number. This override limits the fraction digit count to 340.
* @see NumberFormat#setMaximumFractionDigits
*/
void DecimalFormat::setMaximumFractionDigits(int32_t newValue) {
newValue = _min(newValue, kDoubleFractionDigits);
NumberFormat::setMaximumFractionDigits(newValue);
fImpl->updatePrecision();
}
/**
* Sets the minimum number of digits allowed in the fraction portion of a
* number. This override limits the fraction digit count to 340.
* @see NumberFormat#setMinimumFractionDigits
*/
void DecimalFormat::setMinimumFractionDigits(int32_t newValue) {
newValue = _min(newValue, kDoubleFractionDigits);
NumberFormat::setMinimumFractionDigits(newValue);
fImpl->updatePrecision();
}
int32_t DecimalFormat::getMinimumSignificantDigits() const {
return fImpl->getMinimumSignificantDigits();
}
int32_t DecimalFormat::getMaximumSignificantDigits() const {
return fImpl->getMaximumSignificantDigits();
}
void DecimalFormat::setMinimumSignificantDigits(int32_t min) {
if (min < 1) {
min = 1;
}
// pin max sig dig to >= min
int32_t max = _max(fImpl->fMaxSigDigits, min);
fImpl->setMinMaxSignificantDigits(min, max);
}
void DecimalFormat::setMaximumSignificantDigits(int32_t max) {
if (max < 1) {
max = 1;
}
// pin min sig dig to 1..max
U_ASSERT(fImpl->fMinSigDigits >= 1);
int32_t min = _min(fImpl->fMinSigDigits, max);
fImpl->setMinMaxSignificantDigits(min, max);
}
UBool DecimalFormat::areSignificantDigitsUsed() const {
return fImpl->areSignificantDigitsUsed();
}
void DecimalFormat::setSignificantDigitsUsed(UBool useSignificantDigits) {
fImpl->setSignificantDigitsUsed(useSignificantDigits);
}
void DecimalFormat::setCurrency(const UChar* theCurrency, UErrorCode& ec) {
// set the currency before compute affixes to get the right currency names
NumberFormat::setCurrency(theCurrency, ec);
fImpl->updateCurrency(ec);
}
void DecimalFormat::setCurrencyUsage(UCurrencyUsage newContext, UErrorCode* ec){
fImpl->setCurrencyUsage(newContext, *ec);
}
UCurrencyUsage DecimalFormat::getCurrencyUsage() const {
return fImpl->getCurrencyUsage();
}
// Deprecated variant with no UErrorCode parameter
void DecimalFormat::setCurrency(const UChar* theCurrency) {
UErrorCode ec = U_ZERO_ERROR;
setCurrency(theCurrency, ec);
}
void DecimalFormat::getEffectiveCurrency(UChar* result, UErrorCode& ec) const {
if (fImpl->fSymbols == NULL) {
ec = U_MEMORY_ALLOCATION_ERROR;
return;
}
ec = U_ZERO_ERROR;
const UChar* c = getCurrency();
if (*c == 0) {
const UnicodeString &intl =
fImpl->getConstSymbol(DecimalFormatSymbols::kIntlCurrencySymbol);
c = intl.getBuffer(); // ok for intl to go out of scope
}
u_strncpy(result, c, 3);
result[3] = 0;
}
Hashtable*
DecimalFormat::initHashForAffixPattern(UErrorCode& status) {
if ( U_FAILURE(status) ) {
return NULL;
}
Hashtable* hTable;
if ( (hTable = new Hashtable(TRUE, status)) == NULL ) {
status = U_MEMORY_ALLOCATION_ERROR;
return NULL;
}
if ( U_FAILURE(status) ) {
delete hTable;
return NULL;
}
hTable->setValueComparator(decimfmtAffixPatternValueComparator);
return hTable;
}
void
DecimalFormat::deleteHashForAffixPattern()
{
if ( fAffixPatternsForCurrency == NULL ) {
return;
}
int32_t pos = UHASH_FIRST;
const UHashElement* element = NULL;
while ( (element = fAffixPatternsForCurrency->nextElement(pos)) != NULL ) {
const UHashTok valueTok = element->value;
const AffixPatternsForCurrency* value = (AffixPatternsForCurrency*)valueTok.pointer;
delete value;
}
delete fAffixPatternsForCurrency;
fAffixPatternsForCurrency = NULL;
}
void
DecimalFormat::copyHashForAffixPattern(const Hashtable* source,
Hashtable* target,
UErrorCode& status) {
if ( U_FAILURE(status) ) {
return;
}
int32_t pos = UHASH_FIRST;
const UHashElement* element = NULL;
if ( source ) {
while ( (element = source->nextElement(pos)) != NULL ) {
const UHashTok keyTok = element->key;
const UnicodeString* key = (UnicodeString*)keyTok.pointer;
const UHashTok valueTok = element->value;
const AffixPatternsForCurrency* value = (AffixPatternsForCurrency*)valueTok.pointer;
AffixPatternsForCurrency* copy = new AffixPatternsForCurrency(
value->negPrefixPatternForCurrency,
value->negSuffixPatternForCurrency,
value->posPrefixPatternForCurrency,
value->posSuffixPatternForCurrency,
value->patternType);
target->put(UnicodeString(*key), copy, status);
if ( U_FAILURE(status) ) {
return;
}
}
}
}
void
DecimalFormat::setGroupingUsed(UBool newValue) {
NumberFormat::setGroupingUsed(newValue);
fImpl->updateGrouping();
}
void
DecimalFormat::setParseIntegerOnly(UBool newValue) {
NumberFormat::setParseIntegerOnly(newValue);
}
void
DecimalFormat::setContext(UDisplayContext value, UErrorCode& status) {
NumberFormat::setContext(value, status);
}
DecimalFormat& DecimalFormat::setAttribute( UNumberFormatAttribute attr,
int32_t newValue,
UErrorCode &status) {
if(U_FAILURE(status)) return *this;
switch(attr) {
case UNUM_LENIENT_PARSE:
setLenient(newValue!=0);
break;
case UNUM_PARSE_INT_ONLY:
setParseIntegerOnly(newValue!=0);
break;
case UNUM_GROUPING_USED:
setGroupingUsed(newValue!=0);
break;
case UNUM_DECIMAL_ALWAYS_SHOWN:
setDecimalSeparatorAlwaysShown(newValue!=0);
break;
case UNUM_MAX_INTEGER_DIGITS:
setMaximumIntegerDigits(newValue);
break;
case UNUM_MIN_INTEGER_DIGITS:
setMinimumIntegerDigits(newValue);
break;
case UNUM_INTEGER_DIGITS:
setMinimumIntegerDigits(newValue);
setMaximumIntegerDigits(newValue);
break;
case UNUM_MAX_FRACTION_DIGITS:
setMaximumFractionDigits(newValue);
break;
case UNUM_MIN_FRACTION_DIGITS:
setMinimumFractionDigits(newValue);
break;
case UNUM_FRACTION_DIGITS:
setMinimumFractionDigits(newValue);
setMaximumFractionDigits(newValue);
break;
case UNUM_SIGNIFICANT_DIGITS_USED:
setSignificantDigitsUsed(newValue!=0);
break;
case UNUM_MAX_SIGNIFICANT_DIGITS:
setMaximumSignificantDigits(newValue);
break;
case UNUM_MIN_SIGNIFICANT_DIGITS:
setMinimumSignificantDigits(newValue);
break;
case UNUM_MULTIPLIER:
setMultiplier(newValue);
break;
case UNUM_GROUPING_SIZE:
setGroupingSize(newValue);
break;
case UNUM_ROUNDING_MODE:
setRoundingMode((DecimalFormat::ERoundingMode)newValue);
break;
case UNUM_FORMAT_WIDTH:
setFormatWidth(newValue);
break;
case UNUM_PADDING_POSITION:
/** The position at which padding will take place. */
setPadPosition((DecimalFormat::EPadPosition)newValue);
break;
case UNUM_SECONDARY_GROUPING_SIZE:
setSecondaryGroupingSize(newValue);
break;
#if UCONFIG_HAVE_PARSEALLINPUT
case UNUM_PARSE_ALL_INPUT:
setParseAllInput((UNumberFormatAttributeValue)newValue);
break;
#endif
/* These are stored in fBoolFlags */
case UNUM_PARSE_NO_EXPONENT:
case UNUM_FORMAT_FAIL_IF_MORE_THAN_MAX_DIGITS:
case UNUM_PARSE_DECIMAL_MARK_REQUIRED:
if(!fBoolFlags.isValidValue(newValue)) {
status = U_ILLEGAL_ARGUMENT_ERROR;
} else {
if (attr == UNUM_FORMAT_FAIL_IF_MORE_THAN_MAX_DIGITS) {
fImpl->setFailIfMoreThanMaxDigits((UBool) newValue);
}
fBoolFlags.set(attr, newValue);
}
break;
case UNUM_SCALE:
fImpl->setScale(newValue);
break;
case UNUM_CURRENCY_USAGE:
setCurrencyUsage((UCurrencyUsage)newValue, &status);
break;
case UNUM_MINIMUM_GROUPING_DIGITS:
setMinimumGroupingDigits(newValue);
break;
default:
status = U_UNSUPPORTED_ERROR;
break;
}
return *this;
}
int32_t DecimalFormat::getAttribute( UNumberFormatAttribute attr,
UErrorCode &status ) const {
if(U_FAILURE(status)) return -1;
switch(attr) {
case UNUM_LENIENT_PARSE:
return isLenient();
case UNUM_PARSE_INT_ONLY:
return isParseIntegerOnly();
case UNUM_GROUPING_USED:
return isGroupingUsed();
case UNUM_DECIMAL_ALWAYS_SHOWN:
return isDecimalSeparatorAlwaysShown();
case UNUM_MAX_INTEGER_DIGITS:
return getMaximumIntegerDigits();
case UNUM_MIN_INTEGER_DIGITS:
return getMinimumIntegerDigits();
case UNUM_INTEGER_DIGITS:
// TBD: what should this return?
return getMinimumIntegerDigits();
case UNUM_MAX_FRACTION_DIGITS:
return getMaximumFractionDigits();
case UNUM_MIN_FRACTION_DIGITS:
return getMinimumFractionDigits();
case UNUM_FRACTION_DIGITS:
// TBD: what should this return?
return getMinimumFractionDigits();
case UNUM_SIGNIFICANT_DIGITS_USED:
return areSignificantDigitsUsed();
case UNUM_MAX_SIGNIFICANT_DIGITS:
return getMaximumSignificantDigits();
case UNUM_MIN_SIGNIFICANT_DIGITS:
return getMinimumSignificantDigits();
case UNUM_MULTIPLIER:
return getMultiplier();
case UNUM_GROUPING_SIZE:
return getGroupingSize();
case UNUM_ROUNDING_MODE:
return getRoundingMode();
case UNUM_FORMAT_WIDTH:
return getFormatWidth();
case UNUM_PADDING_POSITION:
return getPadPosition();
case UNUM_SECONDARY_GROUPING_SIZE:
return getSecondaryGroupingSize();
/* These are stored in fBoolFlags */
case UNUM_PARSE_NO_EXPONENT:
case UNUM_FORMAT_FAIL_IF_MORE_THAN_MAX_DIGITS:
case UNUM_PARSE_DECIMAL_MARK_REQUIRED:
return fBoolFlags.get(attr);
case UNUM_SCALE:
return fImpl->fScale;
case UNUM_CURRENCY_USAGE:
return fImpl->getCurrencyUsage();
case UNUM_MINIMUM_GROUPING_DIGITS:
return getMinimumGroupingDigits();
default:
status = U_UNSUPPORTED_ERROR;
break;
}
return -1; /* undefined */
}
#if UCONFIG_HAVE_PARSEALLINPUT
void DecimalFormat::setParseAllInput(UNumberFormatAttributeValue value) {
fParseAllInput = value;
}
#endif
U_NAMESPACE_END
#endif /* #if !UCONFIG_NO_FORMATTING */
//eof